CAAM & EXRAAM?![]()
Raytheon Missiles & Defense, Tucson, Arizona, has been awarded an estimated $21,000,000 indefinite-delivery/indefinite-quantity, cost-plus-fixed-fee contract. This contract is to develop critical subsystem technologies that support the Compact Air to Air Missile and Extended Range Air to Air Missile systems. Work will be performed in Tucson, Arizona, and is expected to be completed by Dec. 15, 2029. This award is the result of a white paper originating from broad agency announcement FA8651-20-S-0008. Fiscal 2022 research, development, test and evaluation funds in the amount of $1,725,000 are being obligated at the time of award. Air Force Research Laboratory, Eglin Air Force Base, Florida, is the contracting activity (FA8651-23-D-A001).
Naval Air Warfare Center Weapons Division (NAWCWD) China Lake, California intends to procure on a Full and Open competition basis to develop and demonstrate technology that results in greatly enhanced kinematic capability for the next generation of tactical missiles. To support this technological development efforts, NAWCWD is interested in maturing high total impulse loaded and energy tailorable solid propulsion systems for transition into compact weapon systems, including a Compact Air-to-Air Missile (CAAM). Requirements will include tasking and products needed to provide a Concept Design with build-to-print data package, identify critical technology gaps, conduct critical component and rocket motor experiments, conduct a Design for Manufacturing & Assembly study to identify features required to meet manufacturing and cost goals, and provide a plan to mature the CAAM HLG Concept Design to a maturity state ready to enter a Department of Defense (DOD) Engineering and Manufacturing Development (EMD) program. It is anticipated that there will be a combination of Cost-Plus Fixed Fee (CPFF) and Firm Fixed Price (FFP) line items to satisfy requirements. This procurement will be solicited under full and open competition per Federal Acquisition Regulation (FAR) 6.102(b). More information will be provided in the Request for Proposal (RFP), solicitation number N6893625R0029, to be posted in Contract Opportunities on the System for Award Management (SAM) website at https://www.sam.gov/ and the, and will close 45 days from the RFP issue date.
If you replace one or both of them with a non-LO one, it still can happen.If two stealth fighters remain radar silent and fly without giving out too much heat,
If you replace one or both of them with a non-LO one, it still can happen.
If radar is off, wheth it is LO or not LO doesn't matter...
It does, but not as fast as it appears to be.With networked sensors (including space based radars) the likelihood of that happening is decreasing though - even if your local on-board sensors are turned off.
It does, but not as fast as it appears to be.
Number of fully networked aircraft with modern cockpits, operating in modern information ecosystems with this level of feed is, to date, very low. Especially when said aircraft operate over neutral/hostile ground.
I.e. sensors of local flight and individual aircraft still matter. As such, yes, more or less anyone still can be ambushed, by even a relatively simple ambusher. Situation started changing, but it'll remain like this for a while.
Depending on the design chosen someone could be looking at a 5.5"-6" forebody mated to a 7" motor to maximize performance and aerodynamics.That increases drag, completely messes up the fineness ratio.
Given the same motor length the mass increase is the same as the cross section area increase. In simple terms thrust increases proportional with area or (for short) with diameter. This means the acceleration potential remains the same. Unless chamber size is increased in volume and pressure rating which will increase burn rate. You can evaluate burn rate as lenght/burn-time. Given same lenght the higher acceleration burn will decrease burn time and ultimately range. The secret gain here lies with HLG. For "same" design acceleration rate we get 1.5x range. But drag and other compomises and tweaks will change this.That increase in diameter also increases thrust by a heck of a lot. If CAAM is meant to be stacked longitudinally (which I expect due to the ~2m length of the missile), then the mass of the missile is probably roughly equivalent to that of a sidewinder ( and about half that of an AMRAAM). Increasing the internal area by 96% gives the rocket engine much higher burn area, and the mass flow rate will increase proportionally. More energetic, highly loaded grain propellants, and an increase in nozzle size should do the same. Now the range would be harmed by this (with all other things equal, due to a more draggy airframe), but the initial thrust and thrust to weight ratio should increase massively instead. I can see this being a very effective short range "defensive" air to air missile. Either targeting fast-moving cruise missiles or even air-to-air missiles.
I'm assume the AIM9 "long" forebody (~0.9m) will be made shorter with new tech like from RAM. Larger sizes for CAAM could come from Blackbeard's AESA programs etc. This would allow to retain motor length somewhat. Target half-araam size is about ~1.8m so ~1.2-1.5 m motor might be possible.I just don't think this missile will be close to the same length (given that it needs to be compact) and the diameter is already that of the AMRAAM, thus I would expect the motor length to be much lower, and hence the weight too. The peregrine graphic released earlier (different missile, but it seems like comparatively similar goals) is also quite the stubby missile, and has a length-to-width ratio of about 11 to 12. This would give a length of about 2 meters (1.96-2.13 m) for the whole missile, which should allow for two missiles in a F-35 IWB stacked lengthwise.