I love looking back 10+ years for the cheapest Linux thing you could buy. People were buying devices that were for kids or a router or something and repurposing it because it was open enough to get a shell on / flash Linux to it and start doing projects with.
In the 2020s or somewhere before that we got a bunch of dedicated cheap MCUs that were good enough and I think stole the thunder from full Linux but there are still projects to run it on things like the ESP32 family.
Either way, hardware hacking is still my favorite hobby to watch.
When they were that cheap, I would grab my one on every trip to Microcenter, just because I'd probably find a use for it, and if I didn't, I knew someone else would want it. Fun times.
This article motivated me to buy three of these, it was fun, I had to get a pico to build the interface.
I still intend to go back, but time keeps on slipping...
I'm sure many have collected an impressive number of SBCs since the beaglebone, someday I want to build a display case that runs them all on some distributed process as a visual art piece
One could buy an old router or Android device for media playback on a TV for less. So the main attraction here is not that it's cheap, but that it's small and has convenient GPIO.
The C906 core that runs Linux on the BL808 SoC on this device has roughly the same integer performance as a P3 on a per Mhz basis. The C906 is about 2.4 DMIPS / Mhz and the P3 is roughly 2.4 (Katmai core) - 2.8 (Tualatin core) DMPIS / Mhz depending on the version. You are looking at roughly P3 450 integer performance
Its an interesting comparison that Im not sure reflects positively on the RISC-V C906 core when you factor in core area and process nodes and core area, 22nm vs 250nm. Even if we choose the worst case scenario for the P3 cores to compare which would be the Katmai core. We are basically look at ~parity with a 30 year old core design
C906 core only @ 22nm = ~0.6 mm2
C906 core only @ 250nm = ~78 mm2 (geometric transform)
P3 core only @ 22nm = ~0.5 mm2 (geometric transform)
P3 core only @ 250nm = ~76 mm2
Apologies if this is messy and badly formatted. Im currently at a wedding, sat waiting between the ceremony and the after party and Ive quite a few beers. I responded because its something I looked at previously with RISC-V cores and I already had the answers in my head
In the 2020s or somewhere before that we got a bunch of dedicated cheap MCUs that were good enough and I think stole the thunder from full Linux but there are still projects to run it on things like the ESP32 family.
Either way, hardware hacking is still my favorite hobby to watch.
Personally the pricing changes are absurd even with inflation and memory prices in mind.
RPi is horrible value now you can get so much more from a lot of other boards it's not even a comparison now.
I still intend to go back, but time keeps on slipping...
I'm sure many have collected an impressive number of SBCs since the beaglebone, someday I want to build a display case that runs them all on some distributed process as a visual art piece
Probably a little faster than a Pentium 3
Its an interesting comparison that Im not sure reflects positively on the RISC-V C906 core when you factor in core area and process nodes and core area, 22nm vs 250nm. Even if we choose the worst case scenario for the P3 cores to compare which would be the Katmai core. We are basically look at ~parity with a 30 year old core design
C906 core only @ 22nm = ~0.6 mm2
C906 core only @ 250nm = ~78 mm2 (geometric transform)
P3 core only @ 22nm = ~0.5 mm2 (geometric transform)
P3 core only @ 250nm = ~76 mm2
Apologies if this is messy and badly formatted. Im currently at a wedding, sat waiting between the ceremony and the after party and Ive quite a few beers. I responded because its something I looked at previously with RISC-V cores and I already had the answers in my head
https://www.canakit.com/raspberry-pi-zero-2-w.html?cid=usd&s...