Nothing offhand, but some general advice:
If you can do wideband, RF is a cakewalk.
The main things you'll be doing are filtering (there are standard filter designs and calculators out there), mixing (OTC from Minicircuits or etc., or build your own from anything), amplifying (MMICs, or build your own), and generally ensuring that all the impedances are correct.
That last part is key. RF is all about impedances, and over what ranges they're valid. Filters only work when they're matched. Amplifiers only reach peak performance (power/gain or noise -- which are usually nearby, but not quite equal) when matched properly. Tuning inductors and junction capacitances interact with the local or system impedances to determine bandwidth; and parasitic resonances (e.g., resonant modes of coils, standing waves of transmission lines) can accidentally provide additional bandwidth beyond the intended range.
The other part is much more numerical than physical: the band plan must be chosen carefully, so that harmonics and mixer products do not conspire to produce spurs and images in the tuning range. Harmonics and mixer products are all integer ratios, sums and differences, so you essentially need to anti-solve a Diophantine equation (because, if the equation happened to be true within the passband, you get an image there -- you need it to be false, as much as possible).
But impedances are the big deal. Once you know impedances, and get a feel for how inductors and capacitors transform resistance and reactance, you begin to recognize transformation networks in stock circuits, and can easily recognize and calculate what the local or system impedance should be.
(Note: the distinction between "system" and "local" arises because, say, you might prefer to use 50 ohm transmission line between subcircuits. But, the amplifier's output impedance might be 1kohm or something. So you need a matching network or transformer to go between them. If one stage is immediately going on into some other oddball impedance (like a very low impedance emitter, or a modest impedance base or gate), you might as well transform it in one step without touching system impedance at all. "System impedance" doesn't really mean anything between stages like this -- but usually you aren't transforming too gross a ratio, so you can still think of the average impedances (note: geometric average) to keep a mental tab on expected voltages, currents, inductances, etc.)
Tim