π RAM (Random Access Memory) is used to store data temporarily.
πΎ RAM is different from persistent storage, as it loses data when the power is off.
π A circuit that can store a single bit of data is the starting point for creating a memory module.
π‘ Logic gates like the OR gate and the AND gate can be used to create circuits that can store information.
π The AND-OR latch is a circuit that can store a single bit of information and can be set or reset using input signals.
π§ To simplify the circuit, a gated latch can be used, which allows for writing data and locking the memory using an enable line.
π A lock is used as a simple example of a 1-bit register, demonstrating the concept of storing data.
π Multiple 1-bit registers can be combined to form a register, which can store multiple bits of information.
π₯οΈ Modern computers have registers with larger bit widths, such as 64 bits, to store more data.
π Registers and RAM store data in a computer.
π Registers and RAM are organized using a matrix configuration.
β‘οΈ A shared 'enable write' line is used to select individual registers and transfer data.
π’ A component called a multiplexer is used to convert addresses into rows and columns.
𧬠Memory is organized into components, with each component having an 8-bit address and the ability to store 8 bits of data.
π The multiplexers and memory components together form a unified addressable memory.
Registers and RAM are integral components of modern computers.
RAM is like the short-term memory of a computer and allows for random access to any location.
RAM size has expanded from 256 addresses to gigabytes and terabytes.
π Different types of RAM, such as SRAM, DRAM, flash memory, and NVRAM, store information using various circuits and technologies.
π’ RAM operates based on nested matrix layers to store a large amount of data, with basic operations being relatively simple.
π― Understanding the intricate abstractions and layers of RAM can be challenging, similar to a shrinking Russian nesting doll.