XSYDA · XMCP v1 · Adaptive Memory-Centric Processor

Adaptive Computing
Begins Here.

XMCP introduces adaptive memory-centric computing designed for intelligent workload execution — routing, precision, sparsity and caching that reshape themselves around the work.

Scroll to explore
0
Verified RTL modules
0%
Functional coverage
0
Lower latency*
0
Power reduction*

*Average across the five benchmark workload classes vs. a fixed-function baseline.

The bottleneck

Most compute still moves data more than it computes.

Traditional accelerators shuttle data back and forth on fixed paths at fixed precision. XMCP makes the architecture adapt to the workload instead.

Traditional computing

Move · Compute · Move back · Repeat

Move data from memory to compute
Compute at fixed full precision
Move results back to memory
Repeat — on static, reactive paths
BottlenecksPower wasteLatency
XMCP

Adapt · Predict · Skip · Reuse

Adaptive routing chooses the best path
Predictive memory prefetches what's next
Sparse compute skips zero work
Workload intelligence tunes precision & cache
Adaptive routingPredictive memory Sparse computeWorkload intelligence
Interactive architecture

Eight adaptive stages, one signal flow.

Select a stage to see what it does and the live metrics it exposes. Signal flows top to bottom.

Live simulator

Run a workload. Watch it adapt.

Pick a workload class and see routing, prediction, sparse reduction, power and latency respond.

Matrix workload

class · COMPUTE_HEAVY
Routing
Prediction
Sparse reduction
Power activity
Latency est.
Throughput
0s
5s
10s
15s
20s
Predicted packet Memory packet Sparse-skipped Thermal Power
Performance dashboard

Telemetry, live.

XMCP observes itself: workload profile, power, prediction efficiency, optimization, adaptation and health.

Workload profile

utilization map · 8 banks

Power activity

switching + compute + memory

Prediction efficiency

cache + prefetch hit rate

Optimization score

operating-point quality
0

Adaptive behavior

routing / precision / sparse decisions

Health score

aggregate system health
0

Thermal map

die regions · live

Congestion map

routing pressure

Memory utilization

8 banks · live

Power activity heat map

switching density

Adaptive behavior timeline

routing / precision / sparse / cache decisions over 20s
Why XSYDA

Static silicon vs. adaptive silicon.

Traditional architecture
XMCP
Static executionfixed dataflow
Adaptive executionreshapes around the workload
Fixed precisionalways full width
Adaptive precision8 / 16 / 32-bit on demand
Reactive routingresponds after congestion
Predictive routinganticipates traffic
Uniform computeprocesses every element
Sparse computeskips zero work
Roadmap

From adaptive processor to optical fabric.

01

XMCP

Shipping · v1

Adaptive memory-centric processor. Verified RTL, SDK, virtual silicon and a commercial release.

› Adaptive routing & precision› Predictive memory + sparse compute› Virtual-silicon digital twin
02

XMCP-X

Future research

Scaled multi-tile adaptive fabric with cross-tile workload intelligence and shared prediction.

› Multi-tile adaptive fabric› Cross-tile workload DNA› Shared prediction engine
03

XOMP

Future research

Optical memory-compute interconnect — adaptive routing extended into the photonic domain.

› Photonic interconnect› Optical adaptive routing› Memory-compute fusion
Partner program

Evaluate XMCP with your workloads.

Early access, evaluation sandboxes, research collaboration and industry partnerships.

Early access

Hands-on access to the v1 SDK and virtual-silicon platform.

Evaluation

Run structured evaluations against your own traffic profiles.

Research

Collaborate on adaptive-architecture and silicon-readiness research.

Industry

Co-design integration paths toward XMCP-X and XOMP.