THE EXECUTION LAYER
CPUs execute everything.
Execution can be smarter.
Modern processors expose enormous parallelism, topology and performance variation. CPURuntime turns those resources into a programmable execution fabric.
RUNTIME LOOP
OBSERVE
↓
PLACE
↓
EXECUTE
↓
ADAPT
RUNTIME CONTROL
Control the machine beneath the workload.
01 / PLACE
Core Placement
Map work to processors according to topology, locality and execution needs.
02 / SCHEDULE
Thread Control
Coordinate threads, queues, priorities, concurrency and CPU time.
03 / LOCALIZE
Memory Locality
Keep execution close to the data, caches and memory it depends on.
04 / ADAPT
Runtime Optimize
Continuously respond to load, contention, latency and performance.
CORE ORCHESTRATION
Turn cores into
an execution fabric.
Treat processor capacity as a dynamic pool rather than static hardware. Place workloads according to core availability, affinity, topology, priority, cache behavior and latency requirements.
SOCKET 0 / CORE MAP
C0
91%
C1
84%
C2
21%
C3
76%
C4
18%
C5
94%
C6
42%
C7
87%
RUNTIME PLACEMENT / ACTIVE
THREAD SCHEDULING
Put the right work
on the right core.
Coordinate runnable work across processor resources using workload class, priority, latency objectives and current contention rather than treating every thread as equivalent.
SCHEDULER / QUEUE
P0 INFERENCE / REQUEST-84 RUN
P1 STREAM / PROCESS-12 READY
P2 BACKGROUND / JOB-442 WAIT
CPU TOPOLOGY
A core is not
just a core.
Modern machines expose sockets, cores, hardware threads, caches and memory domains. CPURuntime understands the topology so execution can be placed with physical locality in mind.
MACHINE / TOPOLOGY
SOCKET 0
32 CORES
L3 / NUMA 0 / MEMORY A
SOCKET 1
32 CORES
L3 / NUMA 1 / MEMORY B
CACHE AWARENESS
Keep hot data
close to execution.
Scheduling decisions affect more than utilization. Moving work can disrupt cache locality and increase memory traffic. The runtime can incorporate locality into placement decisions rather than optimizing solely for idle cores.
NUMA AWARENESS
Compute belongs near
its memory.
Coordinate CPU placement with memory locality so latency-sensitive workloads avoid unnecessary remote-memory access across multi-socket systems.
PRIORITY RUNTIME
Not every cycle has
the same value.
Reserve CPU capacity for latency-sensitive and high-value execution while background workloads consume opportunistic capacity without dominating the machine.
WORKLOAD / CLASSES
CLASS 01
REALTIME
LATENCY FIRST
CLASS 02
SERVICE
BALANCED
CLASS 03
BATCH
THROUGHPUT
AI ON CPU
AI isn't only
a GPU workload.
CPU infrastructure remains essential for tokenization, retrieval, orchestration, data movement, preprocessing, post-processing, networking, control logic and CPU inference. CPURuntime coordinates that execution as part of the AI stack.
INFERENCE RUNTIME
Turn spare CPU
into inference capacity.
Schedule CPU-compatible models across available cores according to model requirements, latency targets and machine load—turning general-purpose processors into dynamically allocated inference resources.
WORKLOAD ISOLATION
Protect important work
from noisy neighbors.
Create CPU execution boundaries for services and agents so background activity cannot silently consume the resources reserved for latency-sensitive work.
LIVE MIGRATION
Move execution when
the machine changes.
Respond to contention, thermal conditions, resource pressure and workload changes by rebalancing eligible work across processor resources.
POWER AWARENESS
Performance has
an energy cost.
CPU frequency, utilization and workload placement interact with power consumption. Runtime policies can choose between latency, throughput, efficiency and available power according to workload objectives.
FLEET RUNTIME
One CPU fabric.
Across every machine.
Extend execution decisions beyond a single server. Discover processor capacity across a fleet and place compatible work according to architecture, available cores, locality, load and policy.
HETEROGENEOUS CPUs
Different cores.
Different jobs.
As processors become increasingly heterogeneous, runtime placement can account for differences in core performance, instruction support, efficiency and workload suitability.
EXECUTION TELEMETRY
See where every
cycle goes.
Expose utilization, CPU time, scheduling overhead, frequency, contention and workload placement so operators can understand how processor capacity becomes application performance.
PREDICTIVE SCHEDULING
Schedule for what
happens next.
Use workload history and live system state to anticipate CPU pressure, queue growth and contention before service quality deteriorates.
CPU ECONOMICS
Treat processor time
like a resource market.
Allocate finite CPU capacity according to workload value, service objectives, deadlines and available infrastructure—turning processor scheduling into an economic optimization problem.
RUNTIME API
Make CPU execution
programmable.
Give applications an interface for expressing execution intent—priority, latency, affinity, isolation and resource requirements—while the runtime translates that intent into processor-level decisions.
CPU / RUNTIME API
cpu.place(workload)
cpu.priority(realtime)
cpu.affinity(cores)
cpu.isolate(service)
cpu.optimize()
FROM SERVER TO EDGE
The CPU runtime
travels with the workload.
The same execution abstraction can span cloud servers, private infrastructure, workstations and edge devices while adapting to each machine's processor topology and available resources.
THE COMPUTE LAYER
Models need accelerators.
Systems need CPUs.
Even accelerator-heavy architectures depend on CPUs for the surrounding execution environment. CPURuntime positions the processor not as legacy compute, but as the general-purpose control and execution fabric underneath modern software.
COMPUTE / STACK
LAYER 04
APPLICATIONS + AGENTS
LAYER 02
SCHEDULING · MEMORY · TOPOLOGY
LAYER 01
CORES · CACHE · MEMORY · SILICON
THE CATEGORY
CPU execution
as infrastructure.
A programmable runtime between software workloads and processor hardware that continuously manages how computation is placed, scheduled and executed.
CORE POSITIONING
CPURuntime.com
The intelligent execution layer that turns CPU infrastructure into a programmable compute fabric.
CPURUNTIME.COM
Make every core count.
PLACE → SCHEDULE → EXECUTE → OPTIMIZE
