SCU-GPU
General-purpose GPU cycles for mixed workloads (graphics, ML prototyping, light rendering)
SCU-GPUsh
Fractional / MIG or time-sliced GPU capacity
SCU-FPGA
Reconfigurable logic for low-latency, domain-specific pipelines (HFT, encoders)
SCU-Edge
Geo-proximate compute ≤ 10 ms from end-user (IoT, AR/VR)
SCU-SLS
Ultra-short "serverless" tasks where cold-start dominates
SCU-MemOpt
High-memory per vCPU for in-memory DBs & caching
SCU-NetOpt
High-throughput / low-jitter networking (40 Gb+ or ≥ P95 < 200 µs)
SCU-IO
Storage- or I/O-bound tasks, e.g. data prep, ETL
SCU-Render
Deterministic batch rendering / media transcode
SCU-QuantumSim
Gate-level or annealing simulators up to N qubits
SCU-Trusted
Confidential-compute enclaves (Intel SGX, AMD SEV-SNP)
SCU-Stream
Real-time analytics on unbounded data streams
SCU-GPU
General-purpose GPU cycles for mixed workloads (graphics, ML prototyping, light rendering)
SCU-GPUsh
Fractional / MIG or time-sliced GPU capacity
SCU-FPGA
Reconfigurable logic for low-latency, domain-specific pipelines (HFT, encoders)
SCU-Edge
Geo-proximate compute ≤ 10 ms from end-user (IoT, AR/VR)
SCU-SLS
Ultra-short "serverless" tasks where cold-start dominates
SCU-MemOpt
High-memory per vCPU for in-memory DBs & caching
SCU-NetOpt
High-throughput / low-jitter networking (40 Gb+ or ≥ P95 < 200 µs)
SCU-IO
Storage- or I/O-bound tasks, e.g. data prep, ETL
SCU-Render
Deterministic batch rendering / media transcode
SCU-QuantumSim
Gate-level or annealing simulators up to N qubits
SCU-Trusted
Confidential-compute enclaves (Intel SGX, AMD SEV-SNP)
SCU-Stream
Real-time analytics on unbounded data streams
Buying cloud capacity still feels like a guessing game. One vendor labels its box "c6a.2xlarge," another rents out "A100-80G MIG slices," yet neither sticker hints at what a 10-second AI inference or a two-hour simulation will actually cost in usable performance.
Sub-second cold-starts, memory quirks, and uneven scaling lurk between the lines, turning price sheets into labyrinths and leaving a huge share of the compute, both existing and future, idle on the data-center shelf.
To treat compute like any other commodity, for example kilowatt-hours or bushels of wheat, we need one trusted yardstick. Enter the Standard Compute Unit (SCU): a metric that fuses familiar benchmarks and tempers them with real-world efficiency and scaling penalties, so one SCU on Provider A delivers the same work as one SCU on Provider B. The idea isn't radical; it's simply rigorous, open standardization.
Armed with a common unit, buyers comparison-shop by price per SCU and know exactly what they're getting, while sellers, from hyperscalers to edge nodes, can list spare cycles without inventing new SKUs. The upshot is a leaner, smarter market: less guesswork, fairer pricing, and far more of humanity's compute, the fuel for tomorrow's super- intelligence, brought online through a single, global exchange.