Opposing XKCD’s “Book that portrays workings of common things,” I will portray how computing contraptions work without using many most common words.
A CPU is an important part of a computing contraption. On it, many tiny doors of silicon allow or disallow small things without significant mass and minus attraction to pass through. As inputs to a tiny door imply its condition, small things without significant mass, if passing through, go on to a tiny door that follows, which again can stop or not stop small things without significant mass. Through up 10^9 tiny doors, a CPU can clarify a radically difficult inquiry.
A CPU plugs into a controlling board that contains not only a housing for a CPU, but also housings for computing contraption parts such as RAM and GPU. A controlling board additionally has junctions that allow a computing contraption to join to input and output contraptions.
RAM stocks information that a CPU must summon following computations. A GPU draws graphical information that a computing contraption displays for a human to look at.
An important part is also a part that is a stash for information. Two kinds of information stash parts occur now: flash (SSDs), and non-flash information stash parts. Common non-flash information stash parts that apply spinning disks can stash up to 8 x 10^12 bits of information for low costs.
Computing contraptions spawn much atomic vibration; thus, aluminum or Cu (s) vibration-sinks and fans in computing contraptions shift vibrating groups of atoms away from a computing contraption. Not all computing contraptions spawn thismuch atomic vibration; many computing contraptions such as smart calling contraptions do not spawn that much atomic vibration; as such, cooling from a computing contraption’s box and air around it can cool a computing contraption amply, so it has no fans and big vibration-sinks.
The Null Alephant 