Colonel Reveals the Future of War: Manned + Unmanned Fighters
40m 50s
The discussion centers on the Air Force's accelerated development of unmanned platforms, particularly Collaborative Combat Aircraft (CCA), which are designed to operate semi-autonomously alongside manned fighters like the F-22 and F-35. This approach aims to increase mass and flexibility in high-end conflicts while protecting pilots by prioritizing unmanned assets in risky scenarios. Key to this effort is a modular open systems architecture, inspired by commercial practices such as smartphone ecosystems, allowing rapid integration of new software and hardware without overhauling entire systems. The speaker, drawing from a career that included Naval Test Pilot School and program management roles, emphasizes the importance of speed, innovation, and collaboration with industry and research labs like AFRL. These strategies align with broader acquisition reforms to shorten timelines and enhance capability delivery to warfighters, ensuring the Air Force remains agile and effective in evolving threats.
We actually took in less than two years from contract award until to go design build and go fly both the GA and angel aircraft. That's like less than half of the benchmark for any unmanned platform before that. Speed to field capability so important. CCA is really emblematic of what the secretary was talking about and that's why when I talk about the government reference architecture which make it so easy to bring new software capability to bear or building physically in a modular way so that I can bring new physical capability to bear and I can make those mods bring that capability much quicker. I was very excited to get picked up. It's 11 months that you'll never forget when a test pilot school. No lethal decisions are made without a human in the loop. The most asyl thing that the Air Force has and has always had is the ingenuity of our airmen. Do you believe that we're far away from getting a lot of the similar kind of benefits that Tesla, the great example, has with their their economist driving capabilities. We're like really close. [Music] Hey, Tim. Thanks a bunch for joining us here on Microjourneys. It's a pleasure to be out here in Ohio and to sit down with you and chat a little bit about your story. So thanks for joining us here. Thanks for having me. I'm kind of excited. Let's start with a little bit about how you got involved with the Air Force. Was this a childhood passion or was this something that you just kind of fall back into? Yeah, so interesting story. I come from a family that does not have a lot of military in history. My grandfather did serve in the Korean War and the Navy, but really beyond that not much military service. I grew up in Indianapolis and decided to go to Purdue University. So I was at Purdue. I was a freshman before I really had thoughts of joining the military. I had a really good friend, one of his friends who was actually an Army ROTC. Army didn't really interest me all that much because I was a huge fan of aircraft all growing up. But not necessarily on the military side, but then I found out I met with some of the recruiters and ROTC there at Purdue and they're they told me about opportunities to go fly opportunities to you know to get school paid for. You know to get to experience something that like I didn't really have any experience with it all. And I don't know if you know this, but ROTC like the first two years, you can kind of do it without any commitment. In general, unless you sign up for a scholarship, but you can do it for the first couple of years and there's no commitment. And so they're like just come in and give it a try. And I just love the people. I love the service aspect of it. And obviously I love airplanes. And so signed up took a scholarship and continued on for the rest of my my years at Purdue. And then signed up that was definitely going to do four years. And that was I don't know like 24 years ago or so. It's just been such a good ride. So really been pleasantly surprised at every different turn that the Air Force has had for me to get to experience it. So when you go from Purdue and to ROTC and you decide to you know, join the Air Force, you start out with I believe it's test pilot school is one of the early stage pieces. Correct. But first thing I went and did when I got commissioned is actually the Colonel who's in charge of the ROTC attachment. You know, as a senior and he said, Hey, how do you like skiing? And it was like water or snow and he's like snow skiing. And I was like, I haven't done it much, but sounds fun. He's like, because you're going to Hill Air Force space. So as I started off as an aeronautical engineer in the Air Force working on the A10 actually, which is still round, still phenomenal platform. We are retiring it, but has done great things during its years of service. But I got to work on that. Even at that point, by the way, it was called a mature and proven aircraft, even back in 2002. But I worked on that for a little bit. And then the Air Force sent me to go get a master's degree actually at Air Force Institute Technology here at Wright Path. And out of that school, I got picked up to go to test pilot school, which was one of my major goals I wanted to do in the Air Force. And so I was very excited to get picked up. You know, I had my orders in hand to go out, to go to test pilot school. My wife was not super excited about moving out to the desert of California. But then I got a call from the comment on and he said, Hey Tim, I've got a deal for you. And really, the deal was they wanted to send me to the Naval test pilot school, which is at Pax River, Maryland. So complete different coasts, different service. You know, of course, that sounds amazing. That it truly was. I was learning everything about being an airman, like airmanship. And I was learning it with a different service, which was really interesting. The cool thing about it is they sent me to go do what they call the rotary wing course. So let's think of helicopter course. Because they had planned for me to go, which I did go work on the CV 22 right out of test pilot school. I get to learn all about helicopters as well as, you know, fixed wing aircraft, fighter aircraft, as well as understanding the large tankers, the ISR aircraft, all that kind of stuff. Learning how they differed, how we test them and how we can contribute to field and capability. It's 11 months that you'll never forget going to test pilot school. So you got to see the integrated air battlefield. It sounds like while you're there, I mean, everything from the tankers to the sensors. Like you said, to the fixed wings to the rotary. I mean, you got to experience all of this over a packed river. And it sounds like that's kind of a foundational piece. Is that a unique thing for you as your career? Is that the way that people get their exposure over at Navy test pilot school? Everybody's journey's a little bit different. The Air Force typically sends a couple people to the Naval test pilot school a year. Whereas the Air Force class is around 2024. So we said, you know, 2024 people through the Air Force test pilot school every every class. So they do twice a year. We only send about two to the Naval test pilot school. So there's not a lot of other people that you're act with that did go to the Naval test pilot school. So it's unique kind of in that respect. The Navy school is is run a little differently than the Air Forces. And so got to do an experience. Like you said, those foundational in my career and very different than some of my peers got to do is pretty fortunate to go do that. After you've complete this portion of your career, there's really kind of two different directions you could go, right? And you decided to go down the path of the programs and the program offices. Why don't you describe kind of what led to that decision and where you landed right after you were done with Navy test pilot school? Thanks. It's a good question, which I spent a lot of time actually mentoring younger officers that are kind of at that crossroads as well. And so I get the question a lot. And so for me, the way it worked out was I went to again, went to Naval test pilot school after that. I had orders to go down to herlwork field, which is right near Eglund and the Panhandle of Florida working on mainly CV-22. It's so the osprey, the tilt rotor worked on that as well as some other special operations airplanes different C-130 variants. And so I did that for several years, actually worked for General Schaeffer. He was my off-script commander during that assignment. I know you had him a little while ago. He encouraged me to go apply to be what's called an executive officer, kind of like an executive assistant to a senior leader. And so I went to go be the executive officer for General CR Davis, who was a two-star at the time. And he was the program executive officer for weapons. What the program executive officer is, it's a think of a very senior program manager over a large portfolio of programs. And so I got to see in that job what it's like to actually make the important decisions, solve the problems necessary to field critical capabilities to the war fighter. And the difference the impact you could have as much as I loved, loved flying, which they would still let me fly. But I love flying and I love doing the test mission. I just saw that there was kind of in my mentality and how I do things. I could make a bigger impact in running programs and making those critical decisions, really driving towards delivering capability to the war fighter to the operator. It was insane. You're kind of at the nexus here from an integrator operator perspective, right? You get to see what the war fighting requirements are. But also the kind of the future demands and the future capabilities that are needed to help support this executive office. Do I have that right? So when I was working for him, I did get to see I saw a lot of that. And I think one of the things maybe we can touch on a little bit later is how with the Secretary of Wars new acquisition transformation, how we're doing like the requirements thing a little differently. Obviously you've probably heard about the J.C.S. process being dismantled, if you will. But in that role, back working for General Davis, that was my first look at getting to see that. Seeing the technology is being developed by our teammates in AFRL, seeing the requirements for today, the future requirements that are coming down, seeing how those come together and capability that we can put in the hands of operator. And so for those that are listening AFRL is an acronym for the Air Force Research Labs, which is one of the the sub components for Air Force material command if I understand that correctly. Exactly right. And hopefully we'll spend a little time talking about the collaborative combat aircraft. It's one of the things that I get the privilege to work on right now. There would be no CCA program without the work that AFRL has done today and leading up to it. Describe what CCA is. Because many people may not be tracking exactly what this is. And when you describe it, also describe why it's important. I mean, why does the Air Force need CCA as a capability versus what it has historically done? The right way I like to focus when I talk about a capability is the why behind the capability first and the why really is that we need to be able to get out. We need more mass. Especially if you start thinking about a high-end conflict if we ever had to go there or at least deterrence of a high-end conflict, you need sufficient mass in many domains. But in the air-to-air domain, you need enough capability and capacity out there. One thing that we're able to do differently on collaborative combat aircraft is we have made them semi-autonomous. So they're unmanned and we're making them smaller and more affordable so that we can actually build the mass and not have to generate as many pilots to do so. And we can do it at a lower cost point. Interesting. Well, I mean, and with the unman piece that gives a lot more versatility to the different types of missions you can conduct in an air-to-air type of combat, correct? It does. It really gives more flexibility to the operational commander to make decisions on what level risk they want to take. It also does more than that. And one thing I probably should have talked about with the collaborative combat aircraft is the first word is collaborative, which means that they are designed to work with our manned fighters. We're able to provide additional capability to those pilots in the F-22 and the F-35 that are out there. We buy them more capability by providing them collaborative combat aircraft that they can quarterback. It also provides more protection to those pilots as well. Because if we get down to a situation where a decision has to be made between losing a semi-autonomous collaborative combat aircraft or one of our piloted fifth gen, it's an obvious answer. We give that that choice to the operational commander to make. Yeah, you can't really put a price on a person's life, right? Yes. So with these unmanned capabilities that are working in concert with the manned capabilities, now if there's a split decision on which assets to take out, it's a no-brainer, right? Now, when you say CCA, is that a whole fleet of capabilities? Is that one capability? How is that being structured right now? One of the things that we're doing is looking more at a system of system fight. So traditionally, we've spent time building the very best of an aircraft to do this one thing and all by itself, right? And so we sometimes call that like the organic kill chain. You mean that close organic kill chain, but we want to be able to bring in many more ways of executing the mission. And you could do that by fusing together multiple platforms into a whole system that can work together. One consents, one can shoot, they can talk together, they can communicate, pass information along. The collaborative combat aircraft, there's a program around it. We'll call that like the first increment and we're doing a lot of work there, which we can talk more about. But it's really a concept of a series of different platforms that provide whatever capability we need. And so the first increment that we were fielding is really focused on providing an air to air capability. They will carry weapons, but the second increment, which we're already working on and we're nailing down what it's going to be could also be a weapons truck or it could be I'm sorry, an air to air platform or it could bring like sensors or electronic warfare capability, whatever the total system needs to be most effective. So we can maybe talking about the increment one is a good one because that one's in the media right quite a bit. The concept there is how do we deliver a forable mass that's capable that can provide semi-autonomous capabilities. And we're doing that with two there's really two key areas to it. One of them is an aircraft. We're currently working with General Tomics and Andrew, who've been phenomenal partners in fielding our initial test assets and flying them now. And then we're also there's a big part of it, which is the mission autonomy. So think the brains of the collaborative combat aircraft. And we're by using some of the principles that the Secretary of War talked about, we're actually going to different people, General Tomics and Andrew for the aircraft that we are for the mission autonomy. We do that through some government reference architectures that we could talk more about, but bringing those two things, the mission autonomy and the air vehicles, that gets us to combat capable semi-autonomous air to air fighters that we can pair together, team together with manned aircraft to get maximum effect. And that maximum effect piece is an interesting way to close that out because yesterday I was having a discussion with Andrew about how they're incorporating a lot of artificial intelligence into some of the ways that they're creating a foundation as a company. And leveraging those capabilities for this next generation type of war fighting platform is something that is largely talked about but rarely implemented. I mean with the government acquisition timelines, a lot of the really neat science and technology that is available commercially takes years to get into our systems. I mean the acquisition timelines take what 10 years at its best, given the legacy way of doing things, but that leads into a comment you made earlier. We're moving faster within the Department of War. Secretary Hegseth has came out and said we need to be a lot more commercial in the way we're thinking shortening these timelines. So how are you seeing some of these initial kind of thought pieces coming in and helping out with such a massive rollout that the Air Force is doing? There's a few pieces to take apart there. One is when we think about AI and autonomy, there's way more applications than just the autonomy that runs an air vehicle that's semi-autonomous, but maybe more impactful for the overall enterprise and the Air Force as a whole is whether Secretary has driven us to fielding the speed to field capability so important. CCA is really emblematic of what the Secretary was talking about. Now that's that's like less than half of the benchmark for any unmanned platform before that. That's lightning speed. That is extremely fast. Having worked with internal government contracting offices in the such two years is usually about the amount of time to get a solicitation out, get responses back, and then provide a war, not even get stuff fielded. I mean, that's an incredible speed. Yes, and it is a team effort to go do that, right? You couldn't do that without industry, right? We also couldn't do that without executing many of the principles. We call them next gen acquisition, which is just a completely rethinking of how you do acquisition without using those principles and working with our air combat command teammates who own the requirements and our industry teammates, we wouldn't be able to be there. Another thing to note on it is that it's not really just about fielding that initial capability. We also have to think about the next step and the next capability. Because as you mentioned, capabilities are developed in industry or the Air Force Research Lab will develop capabilities, maybe a new better autonomy or a better electronic warfare algorithm or better radar. And you want to be able to integrate those quickly. What we have done is following, if you've ever heard of Mosah, so modular open system approach. What is that? It's a guiding principle for developing technology in a modular way, whether it's software, whether it's hardware, it allows you to change out individual pieces of it very quickly without having to replace the whole thing. In many cases, when we go in our fielded platforms and you want to replace one thing, you have to replace the whole system. An example might be if you wanted to replace the one hardware capability in a box that's in a fielded platform, you generally have to replace that whole box and all the connections. Whereas the Mosah approach would design the box to have cards that can be easily removed and replaced. So it's almost like a form fit and function, kind of like a set of Legos. I mean, you have a base here and you just are interchanging the pieces as needed. So your meantime between repairs is drastically reduced because you're not sending it back to the prime. So you'll redesign the entire thing, saves the government money, saves the government time. And now that fielded capability is spending less time on the tarmac than it would have historically. That is right. And hardware where it definitely ways to do that. Well, we're implementing, it's a long acronyms, AMS, GRA, but it's agile, missions, sweet government reference architecture. We don't need to use that again. But essentially, it is a government reference architecture that at its core allows us to take anybody's compliance software and put it on an anybody's compliant hardware. And so I liken this to an iPhone model. It's kind of like your iOS. It's not the thing that you people think about when they think of the iPhone or the Android, you really think about your apps. An iPhone model and you compare that to like compare that to an F-47, for instance, your iPhone has or a CCA has a bunch of sensors on it, right? It's got a camera, it's got microphones. It's even got data links. We call them like your Bluetooth and Wi-Fi connection. It's got a display, it's got interaction. Your F-47 or CCA is the same way. You've got sensors on it. They might be like an IR sensor or an infrared sensor or might be like a radar. You also have communications you have to do. It's somewhat similar in that case. The iOS ties all those things together and sets the software standards so that anybody can bring an application to bear that meets their standards that can then control things on that iPhone. It can activate your camera to take a picture and put on Instagram, if you will. It's the same way for the AMS to your A. It's like your iOS that allows me to bring anybody's software that's compliant onto the aircraft to be able to control the different sensors. So my mind is going crazy here thinking about all the applications, right? If you have this software domain that is connected to all of these different systems, now there's potential for things like executing at the edge or things like rapid deployment of upgraded software for mission requirements. I mean, it seems like this creates yet another large step in not only the department's capability, but a protective mechanism for our national security. With all of these different pieces happening in tandem, your role right now is overseeing the next generation air dominant. That's correct. Why don't you describe what that is? We talked a lot about some of the unmanned pieces, but what is that overarching piece? Yeah, it's really a family of systems that includes the man at 47 program, the unmanned collaborative combat aircraft, those architectures that I talked about. And there's more than just the AMSG array. There's also an autonomy one that it's really interesting I could talk about. And then some of the critical mission systems. So when I talked about those sensors, so developing those mission systems, and obviously it's complemented by advanced weapons and things like that. That's really what the next generation air dominance family of systems is. Within that, you have the next generation air dominance. Is that a subcomponent to materials command or how does that kind of fit into the large air force ecosystem? The organization that I run is actually called the Agile Development Office. And so the Agile Development Office is responsible for the next generation air dominance family of systems. Organizational, the Agile Development Office falls under Air Force Material Command. It actually falls within the fighters in advanced aircraft directorate, which is under the Air Force Life Cycle Management Center, which then reports the Air Force Material Command. But moving away from the organizational, where it really fits in is I think about fitting into capability to the operator. And that is, we already have a phenomenal fielded fleet, F-22, F-35, F-15EXs, F-16, that are phenomenal air superiority and have a tremendous edge over our potential adversaries today. But our potential adversaries are not saying still. They're moving. And in many cases, they're moving faster than they've ever moved. The next generation air dominance family system is really about fielding that next generation of capability or pilots continue to have the edge that they have today. This is one of the challenges with the role like yours, because you have your traditional warfare that you will be tracking like threats that are happening over in Taiwan with potential Chinese conflicts. You have some of the stuff that's happening over in Israel, but you have some of the things that are brand new conflicts that are coming up. Venezuela, for example, is now on the radar, as being something that is of major interest to the United States. So the adaptability for all of these different types of environments that are known, and then sometimes that are not known, having this agile piece is unique. And it seems like it's kind of embedded in the overall thought process of why we need these tandems of manned and unmanned capabilities, correct? The most agile thing that the Air Force has and has always had is the ingenuity of our airmen. They continually time after time find unique ways to take what they're given as capability and make it work for whatever pops up. What I want to do is I want to give them much more flexibility so that their capability that they have that they're making work today, I can tomorrow, or even later today, give them new capability, the better suits, whatever they're being asked to do by the nation. Kind of leading in with the traditional or regular warfare piece, we talked about the Air Force research labs. We talked about things like AI. We've talked about a number of these different technological enhancements that are really foundational. Where do you see kind of one of the biggest hurdles right now from a technology integration perspective that if we are able to overcome this, it's going to further enhance our superiority. One of the big ones for me is, and it's talked about a lot, so I'll try and put it in a little different context, is artificial intelligence and machine learning. There is a tremendous amount of work that is happening in that space. However, what we have not done is looked at all the best places to use it. We many times talk about it as at the bleeding edge, that's where we want to apply it. Sometimes it's much simpler than that. It is the ability to, for the test community, to real-time assess test data and move on to the next data point as opposed to finishing the flight, downloading the data, doing data analysis, and then being ready a week later to go fly the next thing. That's just another way to accelerate capability delivery is accelerating on the test side. That's one key area that I would focus on. Autonomy is obviously close to, I'm very close to that because the collaborative combat aircraft, the interesting thing that we found when we started really doing market research around what autonomy was available and how the market was is we determined that there's tremendous autonomy by ground vehicle companies and by air vehicle. They've both done tremendous work. What the ground, so car industry has is they have tons of reps and sets on that autonomy. I'm not sure what kind of car you drive, but if you drive a Tesla or another autonomous driving vehicle, you are learning that is learning and feeding that back to Tesla. They're getting lots of reps and sets on it. What we need to do is put capability out there so that we can get reps and sets on airborne autonomy. Then that will enable us to then bring in greater and greater levels of autonomy. You take the DARPA error program, which is really focused on bringing AI to the autonomy at a high level. We need to have a proving ground where they can get reps and sets on that type of autonomy. You may have heard of the F-16 Venom program down at Eglyn, where that's one way that we're going to get reps and sets on autonomy. Obviously now that we have flying CCA, we're really close to starting it lots of reps and sets on airborne autonomy that will just take it to the next level, prove out what we've got right and what we need to make tweaks on. Do you believe that we're far away from getting a lot of the similar kind of benefits that Tesla, a great example, has with their autonomous driving capabilities. Do you think that our platforms are very far away? Do you think we can leverage lessons learned from industries like the auto industry? What's your perspective on that? Well, on the lessons learned piece, we have learned many lessons. One is about having a very good, faster than real-time simulation capability. That's one thing that we've been working with industry to build up is to be able to get some amount of reps and sets in a software, in a virtual environment relative to our aircraft. We're really close to going flying our mission autonomy on our collaborative combat aircraft that are flying right now. We will just continue to do that, get reps and sets. That takes both having autonomy companies that are working hard, which we have. It also takes us having more aircraft to go so we can fly more often. We are moving out really quickly on those that you probably heard General Atomics has already flown their second aircraft. I expect to handle the fly their second aircraft pretty soon too. Aircraft 3, 4, 5, 6, 7 are all in various stages of being built. We will get them out there, get them in the hands of the experimental operations unit so that they can get those reps and sets on autonomy and how to operate those collaborative combat aircraft with our man platforms in a real-world environment. And you're just creating a larger data set, right? With all of these different systems that are out there now using the term that you're using your reps and sets, right? You're no longer beholden to one single platform. Now you have two, four. And hopefully the number gets to a point where it's just refining the model, not building the model. And that will happen over a period of time. One of the things that did come up as I was getting ready for our discussion was a basic question. How does it differ from a drone to the CCA stuff? Why is there a difference there and why would one care? The traditional RPAs, remotely pilot aircraft are just that, remotely piloted. There are pilots on the stick or keyboard, whatever the case is, real-time flying those aircraft. And they actually have a pretty large crew of people that it takes to generate and operate those aircraft. We are flipping the script with CCA. And so where is it's many people to one aircraft? We are driving it to have the autonomy to allow many aircraft to one person. And that person could be like a, we call them a quarterback, but they'd be a pilot and a man fighter. Okay. And they would be able to, if you will, call plays that the, the CCA would go execute. And they would also be the person who makes any lethal decisions. That's one of the key things about the CCA that is really critical is that we call them semi-autonomous specifically because no lethal decisions are made without a human in the loop making that decision. And according to, you know, duty instructions and ethical use of warfare. To kind of put this the way that my brain thinks is you have a predator drone. That person is on the joystick somewhere at a location driving that around, setting, you know, what the parameters are to either execute a mission, take out a specific asset, whatever it may be in the CCA domain. Now you have your, what you said said quarterback someone that is piloting a system, but he's the play car. He's the one that's saying, okay, football analogy, you're going to run a post here. It goes and runs the post and he hits, he goes and that's what the expected pieces, but in a tactical application. Exactly. And I assume that all of this network of capabilities happen in tandem. It's not superseding what the drones do. There's mission applications for both. Oh, 100%. Yeah, the Air Force has been very clear that clovercom and aircraft are additive to the fleet. They are being added to our fleet to augment what our man fighters can do. And our drones are remotely piloted aircraft are usually in more of a, like intelligent surveillance reconnaissance role. The clovercom and aircraft will different than that will be in a fighter aircraft role. Now we're not having someone, you know, sitting in these unmanned aircraft substantially reduces the weight of the overall system, which means that there's a lot more flexibility and deployment. So in my head, I'm thinking about some of the using the example of the Venezuela stuff where there's drones that are sitting on carriers and stuff and they can pack a lot more, be able to take shorter takeoffs, landings and the such. I'm assuming there's a lot of lessons learned once again that could be applied in this domain as well. So I'm seeing just a lot of flexibility as my brain is kind of thinking and conjuring up, you know, how if I was in charge of the Air Force, I would be flying these different types of things. I agree that they provide tremendous flexibility. And when you think about operating in different areas, you're going to have different levels of buildup of bases. And so the CCA are designed in mind with making it a very small logistics footprint too. Not only do you have a small, that you don't have pilots and you can make this smaller, but the logistics, maintainer footprint is much smaller than with some of our traditional aircraft. The next piece I have, we talked about what you see the technology enhancement challenges maybe, where do you see the real kind of shot of adrenaline coming in from the technology perspective? Where are you seeing like the biggest push? Is it still in the AI space, even though that's the big gap? Or is there another technology enhancement that has really taken strides in some of the successes early on? I have seen some of the biggest strides less in the technology because the technology is is always coming. It's more in setting up systems or ecosystems so that we can ingest that technology at a faster pace. And that's why when I talk about the government reference architectures, which make it so easy to bring new software capability to bear or building physically in a modular way, so that I can bring new physical capability to bear. And I can make those mods bring that capability much quicker. That's where I see the real injection of, I think adrenaline is made, which is evidently that allows us to go faster faster. It's not just can we go fly prototypes at a rate that's never been seen before, but once we feel those things at a rate that's never been seen before, can we continue to give them upgrade their capability, especially if it's software faster than we've ever done before? Yeah, that modular piece is extremely exciting because a lot of historic platforms just say grounded for such a long period of time, examples like the B52, it's a legacy system out there. It will have a long service live. It still has a lot of utility, but when a problem comes up, they did not think about the modular portion of this. It's take out sub-system, either reverse engineer it, find a way to repair it, but that guy is grounded for a long time, where this modular piece you may have spares on hand and swap them out quickly. You're back in, you're back in the fight. So I kind of have two more questions for you here. What is the future of the Air Force, right? You're kind of on the bleeding edge right now with a future set of capabilities, but where do you see the Air Force going after this? There's a few key lines of effort that I see the Air Force moving out on. One is that we are moving away from individual platforms that work all by themselves in a silo. We are moving towards that system of systems. The work being done by the C3BM office, the command control battle management office to really connect together these different systems is what's going to take us in the future. That provides so many different avenues to take advantage of capability over here and over here together to really expand what we can do. The second one is I think we will continue to proliferate autonomy. We're going to show it with collaborative combat aircraft with increment one, we're going to have increment two, there may be follow on increments after that. There may be autonomous vehicles that fill other roles. Maybe they could be a mobility platform, a tanker or in the ISR, the intelligence surveillance reconnaissance in one of those roles. We're going to see that more and more, which is going to drive more human machine teaming. The human machine teaming will become much more prevalent because we can reduce risks to our pilots' lives. We can provide them more capability and generally we can feel things quicker with providing more options to our operational commanders. Maybe the third one that you'll see is what I've talked about a little bit, which is how we're fielding capability differently. The Secretary of War talked a lot about the acquisition transformation. The Air Force was already moving out in that in several ways and you're going to see us move out with even more vigor. The path that the Secretary has laid out is exactly what we need to go down to deliver capability with speed and being able to quickly upgrade it. I was talking with General Panaro about this and he was saying, you know, under the administration right now, it's a ready fire aim kind of approach where speed is one of the biggest pieces that is being implemented today. So what you're describing here with rapid acquisition, you see things like the speed act using speed as an example. Speed act in helping to reduce this. You see Secretary Hegseth with transition from far base types of contracts to leveraging a lot more OTAs. And I have to believe that memo came out last week. So there is not only unawareness that has been picked up across the entire Department of War, but it looks like a lot of the foundational pieces are starting to become implemented. So that way, people like yourself can move at speeds that the Air Force is intended to and not get bogged down by a lot of unnecessary government paperwork. So that's pretty exciting. So the last question I'll have for you is, where do you see your future going? You're currently a kernel in the Air Force. So that is, I mean, that's a pretty high bar already, but what do you think your next set of steps are? I'm super fortunate that I am I've gotten to do the things that I have. If they let me do this job, I'm doing right now for the next 10 years, I would be super happy just the ability to lead acquisition war fighters and put capability in the hands of operators is so important. You know, there's a lot going on. We'll see how the what the Air Force has in store for me. I'm here and happy to serve. And again, love leading acquisition war fighters, love delivering capability. So hopefully I get to keep doing some of that. So Colonel Helfridge, it's Tim. It's a pleasure having you on here. And I look forward to not only seeing how you continue to protect national security are great nation, but your leadership and influence as it continues to, you know, make strides in the programs you're operating and the future that you have. So thanks a bunch for joining us here on MicroJunis. Thank you so much for having me. Really enjoyed it.
Podcast Summary
Key Points:
The Air Force achieved rapid development of unmanned platforms, cutting time by over half compared to previous benchmarks, emphasizing speed in fielding capabilities.
Collaborative Combat Aircraft (CCA) represent a shift toward semi-autonomous, modular systems that enhance mass, flexibility, and protection for manned aircraft like the F-22 and F-3
A modular open systems approach (MOSA) and government reference architecture enable quick integration of new software and hardware, similar to commercial models like smartphones, improving adaptability and reducing costs.
The speaker's career path highlights the importance of cross-service training, program management, and leveraging innovation from entities like AFRL to deliver warfighter capabilities efficiently.
Summary:
The discussion centers on the Air Force's accelerated development of unmanned platforms, particularly Collaborative Combat Aircraft (CCA), which are designed to operate semi-autonomously alongside manned fighters like the F-22 and F-35. This approach aims to increase mass and flexibility in high-end conflicts while protecting pilots by prioritizing unmanned assets in risky scenarios. Key to this effort is a modular open systems architecture, inspired by commercial practices such as smartphone ecosystems, allowing rapid integration of new software and hardware without overhauling entire systems.
The speaker, drawing from a career that included Naval Test Pilot School and program management roles, emphasizes the importance of speed, innovation, and collaboration with industry and research labs like AFRL. These strategies align with broader acquisition reforms to shorten timelines and enhance capability delivery to warfighters, ensuring the Air Force remains agile and effective in evolving threats.
FAQs
CCA is a program focused on developing semi-autonomous, unmanned aircraft designed to work collaboratively with manned fighters like the F-22 and F-35. It aims to provide additional mass, capability, and protection in air-to-air combat scenarios.
Speed to field is critical to rapidly deliver new capabilities to warfighters and maintain a competitive edge. For example, the CCA program achieved development in under two years, significantly faster than previous unmanned platform benchmarks.
MOSA allows technology to be developed in a modular way, making it easier and quicker to upgrade or replace individual hardware or software components. This reduces costs, downtime, and accelerates the integration of new capabilities.
AFRL conducts foundational research and technology development that enables programs like CCA. Their work in areas such as autonomy and sensors is essential for creating advanced, fieldable capabilities.
CCA provides operational commanders with more options by using semi-autonomous aircraft for higher-risk tasks. This protects manned aircraft and pilots, as decisions can prioritize preserving human life over losing an unmanned asset.
AMS GRA is a government reference architecture that enables compliant software to run on compliant hardware, similar to an iOS model. It allows for rapid integration of new capabilities, reducing dependency on specific vendors and speeding up updates.
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