I have to wonder if miniaturized vacuum tubes or simplified chips similar to what was made 30+ years ago might be a way to break into the market. You may not need hi-tech chips and manufacturing processes if you can recreate earlier processes and use those for the simpler tasks. We were making some sophisticated drones in the 1980's and even clockwork drones in the 1960's
I think fiber optic controls simplify things greatly because there is a direct link for commands. Not that it is simple, just that the organic evolution we have seen tends toward simplicity as a means of defeating EW countermeasures.
Some models have self healing mesh networks driven by a decentralized AI that treats the overall attack like a swarm. The optical recognition assigns a point value and then tunnels the attack. This is being done with 'archaic' chips from a consumer perspective. If we stopped retail cellular sales we could probably support this indefinitely - not that the foundries making them would last that long.
Carney should finance the entire vertical supply chain from foundry to assembly. IBM currently runs a half dozen so poorly its assessed that their management team reduces total equipment valuation by several billion each. We could spend $10B for turnkey domestic CPU production and then turn closed automotive lines into component production. We have everything we need to do this, including massive slag heaps of rare earth minerals.
If Ukraine has taught us anything, its that whoever can win the drone war will win the land war. That is a realistic national goal for us. Time for Commonwealth Air Schools 2.0.
~~~~
American
NVIDIA Jetson Series (Orin, Nano): used extensively by Russia (in the Lancet, Molniya, and V2U barrage drones) and Ukraine for onboard computer vision and autonomous target tracking.
Texas Instruments (TMS320 / Sitara / MSP430): Found frequently in digital signal processing, battery management, and power distribution units on Russian long-range drones.
Microchip Technology (ATmega328P / AVR / PIC): Standard 8-bit processors used by Ukrainian volunteer groups for basic engineering, payload drop mechanisms, and secondary trigger switches.
Maxim Integrated / Analog Devices (ADM3232 / Sensors): Used for interface transceivers, air data computing (ADC), and serial communications.
Switzerland / Europe
STMicroelectronics (STM32F4, STM32F7, STM32H7, STM32G0): Powers the core flight controllers (such as those running Betaflight or ArduPilot) and air data computers in Russia's Geran-2 (Shahed-136) and Geran-4 loitering munitions, as well as thousands of Ukrainian FPV quadcopters.
Infineon Technologies: German-designed microchips and clock oscillators recovered in Russia's newest missile-like reconnaissance and decoy drones.
China
Espressif Systems (ESP32 / ESP32-S3): Used by Ukraine wireless video transmission (ESP32-CAM) and secondary communication links.
Leetop (A203 Minicomputer): Chinese-manufactured carrier boards used by Russia to integrate American NVIDIA processors for AI-driven autonomous scouting.
Russia
Milandr (1986VE series) / Mikron: Russia manufactures its own basic 32-bit MCUs (based on the ARM Cortex architecture). Typically reserved for the Orlan-10 reconnaissance system.