Simulator Arsitektural Dari Sirkuit Elektronis Guna Tujuan Pembelajaran

The electronic circuit engineering learning processes generally requires specific infrastructures which sometimes constrained to cost factors in the procurement. Circuit simulator could be an alternative as electronic circuit engineering learning tool. Architectural simulation provides designers the ability to quickly examine a wide variety of design choices. The recent trend in system design toward architectures that react to circuit-level phenomena has outstripped the capabilities of traditional cycle-based architectural simulators. In this paper, a simulator that incorporates a circuit modeling capability, permitting architectural-level simulations that react to circuit characteristics (such as latency, energy, power brightness, or current draw) on a cycle-by-cycle basis is presented. As for learning purpose, circuit template and pre-built circuits for many categories are provided. The environment enables process visualization and simulation of analog and digital circuits. The system enables the creation of many laboratory exercises, which offer students opportunities to follow visually characteristic processes in analog and digital circuits. At this research, Rational Unified Process (RUP) software process model and Object Oriented Programming (OOP) are implemented.Keywords: architectural simulation, circuit simulation, learning, RUP, OO

The ZARF Architecture for Recursive Functions

For highly critical workloads, the legitimate fear of catastrophic failure leads to both highlyconservative design practices and excessive assurance costs. One import part of the problem isthat modern machines, while providing impressive performance and efficiency, are difficult toreason about formally. We explore the microarchitectural support needed to create a machinewith a compact and well defined semantics, lowering the difficulty of sound and compositionalreasoning across the hardware/software interface. Specifically, we explore implementationoptions for a machine organization devoid of programmer-visible memory, registers, or stateupdate, built instead around function primitives. The resulting machine can be precisely andmathematically described in a brief set of semantics, which we quantitatively and qualitativelydemonstrate is amenable to software proofs at the binary level.As time continues, we become increasingly dependent on computational devices for allfacets of our lives — including our health, well-being, and safety. Many of these devices live“in the wild,” in resource-constrained and/or embedded environments, without access to largesoftware stacks and heavy language run-times. At the same, increasing trends in heterogeneityin computer architecture gives the opportunity for new cores in system-on-chips (SoC’s) thatprovide support for increasing critical workloads. We propose an implementation and providean evaluation of such a device, the Zarf Architecture for Recursive Functions (Zarf), provid-ing a interface of reduced semantic complexity at the ISA level, giving designers a platformamenable to reasoning and static analysis. The described prototype is comparable to normalembedded systems in size and resource usage, but it is far easier to reason about programsaccording to analysis. This can serve both resource-constrained devices, providing a new hard-ware platform, and resource-rich SoC’s, serving as a small, trusted co-processor that can handlecritical workloads in the larger ecosystem