I am Daniel Armanios, I am the academic director of this programme, the BT professor and chair of major programme management. And in close collaboration with Guy, we have the distinct pleasure of rallying all the passion and energy that you'll bring to our cohort into eight modules and a thesis. And so as part of this, I thought we would give you a little taster of kind of what goes on in the classroom, the kind of ways we kind of think critically about our existing major programmes and the like, just to give you a feel of kind of the experience as best as we can do it on a Zoom interface. Next slide please. So just to give some thoughts, we usually, when we think of major programmes, we usually like to start with definitions or models. As I always tell our students models and definitions, they are similarly in that they're always wrong, but some could be useful. And so the way you can kind of think about major programmes and the philosophy we have in this programme is that major programmes are really big scale initiatives that involve different organisations, communities, institutions, delivery partners and the like, where what goes into them, what comes out of them and all the time in between is not always clear. For a more practitioner view, we can think of this in terms of metrics of usually projects that are 1 billion or more. But again, we can debate that. For example, there's quite a few really complex, very large scale IT projects that will never hit a billion pound mark, but are still very complex, interdependent, have the similar features or have major programmes in their own right, affect millions of people and take five plus years to build. If you look at HS2, it takes decades to build. And so what that means is often the programme manager, the project manager that starts this is not the one that's going to finish it. And so you have to build in handoffs in between. And so with that on the next slide, I may ask those in the audience participants, what kind of projects for you or programmes for you come in mind when you see that definition? Any projects, programmes? Feel free to type it in. I'll synthesise as I see them. No one's allowed, as I always say in my classroom, I don't take silence to mean agreement or understanding. So which brave soul is going to be willing to maybe put in a few words here and there? No. - Daniel, there's a couple of answers in the Q and A. - Oh, in the Q and A. So they're all in Q and A, excellent. Yes. Infrastructure, perfect. Government, software implementation, rollout, railway programmes. Nice, so we're seeing, oh yeah, the chat. Okay, put perfect HS2, Olympics, airports, oil and gas. So you're thinking large, usually the answers I'm seeing here, Adrianne brought up a good one on humanitarian programmes. We'll talk about this or kind of engage with in a minute, but we're thinking of kind of large scale, either physical hardware that's designed for physical connectivity or a hard infrastructure that's designed for digital connectivity like broadband and the like. So if we toggle through the slides a little bit, what you get essentially is, you know, London, stadia, bridges, you know, the kind of large scale infrastructure programmes. If we could toggle the slides please. Yep. So these are the kind of things we also talked about the digital side. So what I usually do to kind of, and when I'm in the classroom, I usually try to instil some provocation, not necessarily that this means what we're going to talk about in a few minutes here are major programmes in their own right. They're mainly designed to be provocations to make us rethink what elements could be in a major programme or not, or even to debate whether what we see is new trends are just fads or fashions of the time. And so if you may go to the next slide please. And so when I talk about these trends coming up, I want you to ask yourself, do you see elements of major programmes in here or not? Is this just a fad or fashion? And if you do, what kind of opportunities and challenges come to mind? If we can toggle some slides please. Yep. So the next slide, how many of you have heard the company Icon? Some of you may have, some of you have not. They are a startup that 3D prints infrastructure, so they did their first permitted house in Austin. They've now built an entire community in Tabasco, Mexico, because they can print layer by layer using a proprietary printing machine called the Vulcan and a proprietary substance called lavacrete. They can also do really quick tailoring of different structures. So there's a lot of military applications of interest, because you can quickly print out bridges infrastructure to really mobilise forward deployment operations. And in space, if we need to look at unique things for the Martian Lunar climate that can tailor those kind of printing applications. The valuation, if you want to use valuation as a metric of a large scale infrastructure programme or major programme, it's about $2 billion. And if we go to the next slide, you can kind of see how this looks. So this was their first house on the left. It was built in 2018. It has two, it takes two days of print time. The base and the foundations are all print. So the fittings, the windows and stuff are all traditional build. 350 square feet, $10,000 to build it. Fast forward one year later they cut the print time in half, they expanded the size of 500 square feet and the mortgage for these houses is about $20 per month for seven years, which is pretty remarkable in this instance, if you can go back please, in this instance because this community is built on $3 a day. And so this is remarkably affordable even for really low income communities. And when a new technology gets built, we oftentimes to help people understand how it's used, whether it's a startup or a major programme or a manager in such a programme, they usually do things that are scaffolding, build demonstration projects to see that. So if we can go to the next slide. And we can look at the video here. I think if you just, yep, perfect. Oh, didn't go. Okay, perfect. So essentially what's happening here, this is a final project of their housing. There's no need for sound here. The sound is just music. So that's why I've asked to narrate it myself. You can see the flat, whoops if we can, yep. The flat base of this called the Vulcans a 3D printer and it prints out line by line, they're proprietary substance called lavacrete. And you can see the kind of tailoring they can do with their designs. And then we'll see shortly at the end here, the way the final layout looks. And so after this is how they build the foundation and within you can fit all sorts of different designs, have really open design features besides the community in Tabasco, Mexico. They also print really luxury houses, because people can literally tailor the house the way they exactly want it. So it also meets a very high end clientele as well. We'll go to the next slide. The next example we have here is Zipline. And Zipline is a drone based delivery company, predominantly working in Africa. And what they do is, is that, for example, if you're in an area that doesn't have any infrastructure, you also see, and let's say someone is in need of assistance, medical assistance, and we know their blood type, they'll take a drone and ship the blood type to that person via a launcher based system. The valuation of this company is also about 3 billion. And if we go to the next slide, give you a sense if any of you that know about drones, some of them are vertical takeoff and landing, some are launcher based and this one's launcher based, it puts a small payload and that payload is dropped or parachuted down into another part of another area of the community. So this idea here is, kind of the idea with these kind of examples is not, you know, you may say, oh this may make me rethink major programmes. Perhaps it doesn't. But it gives you a sense of what's happening now at the interceses of what's historically major programmes. We go to the next slide. Some of the work I've done in this space is try to say where can we find the most extreme examples of major programmes that would have this kind of distributed decentralised name field. And so some of my work has been in Alaska and the reason I picked Alaska is these towns are extremely small, extremely isolated. You have to fly on milk runs to essentially get there. So these projects have to stand alone. Each of the projects in the portfolio of the major programme have to stand alone and work on their own. I'm not asking you to read the text here, but if you're familiar with Alaska, some of you may, is that there's quite a few indigenous tribes. So each of the texts you see here in Alaska is a different indigenous community. So you have different languages around water, different cultural experiences, different relationships with the land around as guided by the tribal communities there. And so you have different language extremes, you have different spatial extremes and even extreme conditions. Literally they have to heat the water lines to make them flow. And so what you can see is, we'll talk about, so in this sense you're seeing really a whole wide sense of extremes that's really having to be at the frontier of a lot of environmental change. A lot of the ways in which we're rethinking even the traditional major programmes around infrastructure. Next slide please. And so you can see also some of the extreme damages that can happen. So this actually happened during Covid where a fire hit precisely the water system that could extinguish the fire. They had a huge amount of trouble bringing people in, because there was also concern of spreading Covid, because when you're dealing with small village communities on the outskirts, they also are not equipped to handle potential outbreaks of Covid. And so you also get in the extreme and acute interdependencies between different programmes like those in healthcare versus water and the like. Next slide. We can look even in other kind of distributed nature around search patterns. If you look at Google and or Alphabet and their search algorithms underneath it are entire sets of major programmes in server technologies, cloud migration technologies, data analytics. Each of the dots we see here are data centres. As of last count that's been publicly available, two and a half million servers. And what you can see that happens from that in the next slide is that it requires a tremendous amount of water to cool billions of gallons of water. And even the emissions from the search algorithms that use, for example the the workhorse algorithm they use to better tailor search ads to your user experience. And we haven't even by the way talked about chat GPT and how this would disrupt these kind of things. But even to test their workhorse models just once it's equivalent to a single trans American trans-European flight, let alone the amount of money it is to train even to two common languages. If you click once more on the animation from German to English, it takes $150,000 just to increase the BLU score, which is the performance metric of the search, even by a marginal amount, by two languages are very similar. So you can start seeing when you have these kind of distributed really large kind of major programmes, the costs in a variety of ways, whether it's not just monetary but also environmental and even other supply inputs drastically multiply. And so what kind of world are we thinking about here? Is one where major infrastructure projects, oil and gas, traditional infrastructure clearly are important, but they themselves are also becoming more distributed, decentralised. Think of modular infrastructure construction, think of 3D printing, think of other kinds of data analytics, digital twins, building information models that are increasingly making even major infrastructure projects of this sort. And you're dealing with very kind of acute localization as well as globalisation. So if you take cloud computing, cloud data migration, cloud computing programme, you can deal with any attack on a single entity, but it also could cascade to the entire system. So you constantly have to think about every single edge local point as well as what that means for the bigger data set. And then also another extreme, if you think of such as this distributed solar microgrid farm in Zambia, these are usually last mile kind of options for those who don't have electricity and energy as their ambitions grow and they need more energy, how do I connect other last mile communities together to increase the amount of electricity I have available? And so we're increasingly one of the provocations and critical thinking we can have and hopefully in the question and answers, and I know some people have raised their hands in the interim, happy to engage with this further as as we go along. I just want to make sure we get time at the end for your questions. Is that increasing on the next slide what we'll see is we're increasingly dealing with major infrastructure programmes that have centralization, but are now increasingly distributed. You're dealing with entities that are about, instead of thinking about one project and making it bigger, you're thinking about how do I tailor the project for maybe a big size city such as Chicago, London, or Kampala all the way to something smaller such as the villages in Alaska we talked about. It's no longer just taking the same kind of standard tools and procedures and replicating the outcomes. We have to think about the methods, because they know they need to be tailored to different contexts. And so we're getting into a much more kind of large scale portfolio of projects that have to be situated to different contexts and social environments. And so as we go through the discussions, as we have the provocations, I see that some others have already discussed things around AI and leadership and such and who is effective in making the kind of differences and and forms of this. We'll definitely discuss aspects, We're happy in the Q and A to discuss aspects, but this gives you a feel of kind of just a diverse theoretical and academic perspectives that are now coming to bear in this exciting frontier that's evolving and changing as we deal with net zero, as we deal with social grand challenges. And also the technologies that Ravi Shankar and others have mentioned that are also becoming quite influential. And we'll discuss this more in a bit and I think that's all for me. Oh, yep. Okay. Actually we have a little bit more. Good, okay, so good. I still have some time. So in terms of the introduction, what things can we think about? And this is in terms of, I'll bring up two. One is scaffolding and one is what we call sensing. 'Cause increasingly when you have distributed programmes, what ends up happening is that who knows what and who needs what is not so clear anymore. Formerly we're all in the same field site, we could all see what each other's doing, now we can't. So how do you deal with that? And then secondly, we're increasingly dealing with stakeholders that we have to increase their benefits, increase their understanding of what's going on, even if they're not involved directly in the delivery of the programme. How do you find those communities? How do you engage with them to ensure that these programmes are really delivering the benefits we'd want to such communities? So next slide. So we could think of scaffolding in two ways. One is re-envisioning the possible, and this gets a little bit into some interesting things that Ravi Shankar and others in terms of logistics that are happening, is that people are starting to use AI and AR both on an individual project like you see on the lens here around visualising what a project would look like with augmented reality, but even entire urban landscapes such as digital twins to kind of reimagine what's possible. Now, why does this matter so much for major programmes? It's because if you're trying to achieve, let's just take a goal like net zero, we're supposed to reach half emissions by 2035, Zero emissions by 2050. The issue is, is that the projects coming online now are going to take five to 10 years to build. So literally the projects that we're building right now starting to build right now have to have at least emissions. The problem is they're entering a world five, 10 years from now that we know is going to have climate issues, but is also warming and we're not clear of it. And so how do you bridge that kind of collapse time scale? In some sense there's a lot of interesting companies that are trying to visualise that to see if it helps managers better anticipate these problems. So one of the technological leadership things I've seen going on is how to build these technologies to assist in anticipating or forecasting these issues. And so that's kind of rendering the kind of what could be possible. At the same time though, you have to situate it within existing understandings of communities and people in your organisation that are delivering this. So a very simple example that R used when they delivered the Beijing water cube on budget on time was something as simple as slack and other things. And so, and what they decided to do there just simply looking at kind of what are the responsibilities, the roles at such an organisation and making sure everybody knew that when they came in, irrespective of who the individual is that's representing the organisation. This is even useful in areas where historically they haven't maybe necessarily built that knowledge. So for example, the dairy farm you see here, this is actually Nicaragua where they tried to formalise their dairy farming work. And so the idea there is how to take informal ventures or informal dairy farms and help them build into a programme that could be formalised to increase Nicaragua's competitive advantage and milk. What they literally did was build a model farm that people could walk through and see what would it look like if I was running in this way. So scaffolding both helps envision the future in different ways than previously and helps it situate in the local knowledge and experience of communities that are involved as well as delivery professionals. Next slide. And then on the sensing aspect, we've been thinking about how to use this to better, how we can use our existing frameworks to detect gaps. And so some have asked, like Kath, Catherina asked about Covid, how this is dealt with. We actually have a study where we looked at how broadband infrastructure influenced the degree to which unemployment was affected during Covid. And one of the issues is, is that you want people to stay at home, but if they're going to stay at home they need broadband. And what we found is that unemployment increased, particularly in counties and areas where the the inaccess of broadband was very concentrated to a few people. The reason for this is because when others around you have broadband, you assume everyone does and there may be a very substantial minority that don't, and those people get really harmed from employment. And so if you can map out your broadband network during Covid and you know precisely the small pockets that don't have broadband, you can start targeting services, emergency expenses and others even as a delivery professional that could help shore up those gaps. And so I think where Covid was acutely aware in the major programme space was really forcing us to think about the interdependencies between major programmes and also try to see what we can use in our existing data, our existing networks of programmes to detect gaps. And so that's what we've done here. So for example, on this one to the left briefly, is that if you look at the small dash lines, these are known as trivial streets, these are pedestrian streets and it turns out certain configurations of infrastructure lead to certain social activity. So those within, let's say the box number one below or two or three or four where they have a lot of pedestrian streets inside, they have a lot of cohesion, a lot of solidarity, but the really dark black lines, which are non-trivial streets, which mean they go, they get crossed by automobiles, they really stop communities from talking with each other. So for example, one in two, they don't actually talk to each other that much, because there's no streets that kind of cross them pedestrian streets. Even though they're right next to each other. And so with the example I mentioned with broadband, if you expand this out to a city, you can then start seeing pockets of people that we may not be aware of. That really matters. Now to the question of of Ravi Shankar and also an AI, this also recognises that if our physical infrastructure has gaps and not everyone has access to the same infrastructure, then the problem becomes is that there could be bias in our AI networks, because of physical assets, not because of the representativeness of even data. So we take this example of this picture of let's say a smart traffic control system. You'll notice that all, most of the the things being optimised are cars. Only in the very far distance you might see one bus. And what a AI algorithm will do if it's updating in a evasion manner is going to assume this is a path that roads like and they'll keep optimise cars like, and they'll keep optimising for cars. The problem is, is if you have a restrictive bridge or a set of roads that are a gap in the pack, in the distance, buses may not be going through, not because they don't want to be on that road, but because they can't. And so what could happen is if the physical assets are not evenly distributed, then your AI system will be biassed based on physical networks, not just the data networks. And so then we've been thinking about, or people have been thinking about could you penalise or control in the algorithms bias due to infrastructure networks as opposed to just the representativeness of the data itself, which we also know has some biases. And so with that next slide, the kind of ideas that I think this programme is enhancing is that major infrastructure projects, oil and gas, digital transformations, logistics, other things are still crucially important major programmes and you'll continue studying them in this MSc. What we're looking at is how do we prepare you both for the current world and also thinking about trends into the future. How are these historically infrastructure programmes becoming more modular? How are they handling different technological disruptions? How are they handling pressures from governments and others to deliver, you know, not benefits much more immediate and in the short term communities around them as well as new areas, new frontiers for major programmes such as humanitarian logistics, such as cloud computing, such as distributed renewable energy programmes and others that need the kind of thinking that is brought into this MSc. And so tomorrow's events are going to need that kind of distributed decentralised thinking. And I've mentioned a couple of ways to stress test out with scaffolding sensing, but there's eight other modules for which you'll get very different takes and perspectives and really wide your toolkit for how you can think of with of which this is only kind of a taster.