Csc5113c [patched]

Draw litmus tests by hand. Use the herdtools7 (especially genmc ) to visualize allowed vs. forbidden reorderings. Then implement a simple litmus test in C++11 with std::atomic and observe actual behavior on x86 vs. ARM.

is not merely another checkbox on a degree audit. It is a rigorous, transformative journey through the layers of modern computing—from transistors to thread schedulers. Graduates of this course emerge with the rare ability to look at a piece of code and visualize its journey through caches, pipelines, and coherence protocols.

| Week | Topic | Lab Component | |------|-------|----------------| | 1 | Review of classic 5-stage pipeline hazards | Toolchain setup (Gem5, Simics, or Sniper simulator) | | 2 | Dynamic scheduling with Tomasulo’s algorithm | Simulating scoreboarding vs. register renaming | | 3 | Branch prediction (tournament predictors, TAGE) | Implementing a custom predictor in C++ | | 4 | Out-of-order execution (ROB, issue queues) | Modifying a simple OoO simulator | | 5 | Memory disambiguation and store-to-load forwarding | Cache coherence simulation (MSI/MESI) | | 6 | VLIW and EPIC architectures | Analyzing Itanium code traces | | 7 | Midterm exam | No lab; exam review session | | 8 | Vector processors (Cray-1 to modern SIMD) | Writing AVX-2/AVX-512 intrinsics | | 9 | GPU architecture (NVIDIA Volta/Ampere/Hopper) | CUDA kernel optimization for matrix multiply | | 10 | Multi-core cache coherence (MESI, MOESI) | Running a directory-based coherence protocol | | 11 | Memory consistency models (TSO, RC, ARMv8) | Detecting data races in concurrent C++ | | 12 | Hardware transactional memory (HTM) | Testing HTM on Intel TSX (or gem5) | | 13 | Prefetching and speculation | Evaluating stride vs. Markov prefetchers | | 14 | Domain-specific accelerators (DSA) | Designing a simple tensor accelerator in Verilog/C | | 15 | Research paper presentations | Group project finalization | | 16 | Final exam + project demos | Submission of final report and code |

The CSC5113C is a versatile component found in a wide array of consumer and industrial electronics: csc5113c

CSC5113C does something crueler—and far more educational. It forces you to implement the protocols, then immediately break them.

Use ncu (NVIDIA Compute Profiler) to examine achieved occupancy and memory throughput. Reduce kernel launches by fusing operations. Always benchmark with nvprof (legacy) or Nsight Systems .

Without this foundation, students often find the first two weeks—dedicated to a rapid review of pipelined datapaths—extremely challenging. Draw litmus tests by hand

Most networking courses teach you the OSI model, TCP state diagrams, and BGP routing. You memorize port numbers. You calculate checksums. You yawn.

It features high-precision voltage detection while maintaining extremely low current consumption—approximately 7.0 μA during active work and as low as 4.0 μA in sleep mode. Applications and Integration

This is the heart of the course. Topics include: Then implement a simple litmus test in C++11

: Master validation and verification techniques for software systems .

Ask any CSC5113C alumnus about ~/lab4/attacks/ . They’ll go quiet.