+1. Another criticism is consumerism - the hype that some of these devices created was more about purchasing and plugging boards and calling a library, without actually help hobbyists to learn something.
Or as John Carmack has said, low-level programming is good for the programmer's soul, it's hard to imagine that programmers do have souls if they has never been exposed to low-level programming. Unfortunately, in the modern computing world, the chances are becoming fewer and fewer, most systems are far beyond a complete understanding for most people. I think I'll never completely understand the x86_64 instruction set (w/ SSE, SSE2, FMA, AVX), or the signal path of the PCI-E interface on my motherbard.
Recently, I think some popular microcontroller projects may be the solution for a bare-metal programming experience.
But we can also looking it from another perspective - the proliferation of mobile devices changed everything, nowadays, even using a general purpose computer is not an experience that many members of the new generation may have (there was a Hacker News article about it). Some don't understand a hierarchical filesystem of files and directories anymore, and others have problem typing on a physical keyboard. In this sense, to blink an LED on Raspberry Pi is already a big step forward, and it was exactly the motivation behind Raspberry Pi.
Yes, it is unfortunate that in the pursuit of both compatibility and performance we now live in a world where even the CPU is so maddeningly complex that it is basically impossible to reason about how it will perform on any given piece of code. Even writing assembly leaves you a few layers of abstraction above where it would have 30 years ago.
I like to think that it is possible we'll one day develop a CPU architecture that is both simple enough to reason about and also highly performant.
Yes, and it's also the my reason of mentioning microcontroller projects. For example, some find the AVR instruction set is clear and powerful, optimized for both ASM programming and C compilers, and can be used as a good introduction to both hardware and assembly.
> I like to think that it is possible we'll one day develop a CPU architecture that is both simple enough to reason about and also highly performant.
RISC-V is getting there, with open-hardware cores such as Rocket (in-order) and BOOM (out-of-order). Too bad that many and perhaps most of the peripheral components even on a general-purpose SiFive SoC are still closed hardware blocks. But people are working on opening these up as well.
Or as John Carmack has said, low-level programming is good for the programmer's soul, it's hard to imagine that programmers do have souls if they has never been exposed to low-level programming. Unfortunately, in the modern computing world, the chances are becoming fewer and fewer, most systems are far beyond a complete understanding for most people. I think I'll never completely understand the x86_64 instruction set (w/ SSE, SSE2, FMA, AVX), or the signal path of the PCI-E interface on my motherbard.
Recently, I think some popular microcontroller projects may be the solution for a bare-metal programming experience.
But we can also looking it from another perspective - the proliferation of mobile devices changed everything, nowadays, even using a general purpose computer is not an experience that many members of the new generation may have (there was a Hacker News article about it). Some don't understand a hierarchical filesystem of files and directories anymore, and others have problem typing on a physical keyboard. In this sense, to blink an LED on Raspberry Pi is already a big step forward, and it was exactly the motivation behind Raspberry Pi.