Automation System

From Claude with some prompting
This image illustrates an Automation process, consisting of two main parts:

  1. Upper section:
    • Shows a basic automation process consisting of Condition and Action.
    • Real Data (Input) and Real Plan (Output) are fed into a Software System.
  2. Lower section:
    • Depicts a more complex automation process.
    • Alternates between manual operations (hand holding hammer icon) and software systems (screen with gear icon).
    • This represents the integration of manual tasks and automated systems.
    • Key features of the process:
      • Use of Accurate Verified Data
      • 24/7 Stable System operation
      • Continuous Optimization
    • Results: More Efficient process with Cost & Resource reduction

The hammer icon represents manual interventions, working in tandem with automated software systems to enhance overall process efficiency. This approach aims to achieve optimal results by combining human involvement with automation systems.

The image demonstrates how automation integrates real-world tasks with software systems to increase efficiency and reduce costs and resources.

Non-Uniform Memory Access

From DALL-E with some prompting
The image depicts the NUMA (Non-Uniform Memory Access) architecture in computer systems. Key elements include:

  1. Operating System: Manages and controls processes running on the CPU.
  2. CPU: Central Processing Units where computing tasks are executed.
  3. NUMA Nodes: Guide CPUs to use the nearest memory, with each NUMA node having memory areas closer to specific CPUs.
  4. Memory Access Paths: “Short Path” indicates a fast and low-energy memory access that is closer, while “Long Path” represents a slower and more energy-consuming memory access that is farther away.

The structure illustrates that memory access times in a NUMA system are not uniform across all memory, suggesting that memory access optimization can enhance overall system performance.


Process scheduler

From DALL-E with some prompting
The image highlights the essential mechanisms of process scheduling to share a single CPU core resource among multiple processes. The scheduler determines the order of processes to be executed based on priority and changes the current running process through context switching. Additionally, it promptly addresses exceptions requiring urgent processing through interrupts and real-time handling. This scheduling approach ensures efficient allocation of CPU resources and stable operation of the system.