Energy-aware compute lab

More useful work per watt.

LazyHash is an early-stage lab for energy-aware compute — combining GPU workloads, Bitcoin mining efficiency, solar energy, batteries and adaptive scheduling.

Solar Battery Grid
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Energy Layer price · state · priority · capacity
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GPU Render AI Batch ASIC Mining

What is LazyHash?

Compute should not run blindly.

LazyHash explores how hardware can do more useful work with less waste: render jobs when capacity is available, mine only when it makes sense, buffer workloads with batteries, and adapt power use to real-world conditions.

First commercial project

GPU Render Studio

GPU Render Studio is our first focused compute service, built for Blender rendering and GPU workloads. LazyHash develops the broader efficiency layer behind scheduling, benchmarks and energy-aware operation.

Open GPU Render Studio ↗

Project tracks

One system, several layers.

Active

Compute Layer

GPU rendering, AI batch workloads and future worker nodes routed by priority, availability and energy conditions.

Lab testing

Mining Layer

Bitcoin mining efficiency, ASIC undervolting, immersion cooling and flexible-load experiments.

Architecture

Energy Layer

Solar-aware compute, battery-buffered workloads, electricity price logic and adaptive power control.

Open notes

LazyHash Lab

Benchmarks, architecture notes, experiments and a public roadmap for what is being built next.

Energy Layer

Compute should follow energy.

The Energy Layer connects solar production, battery storage, electricity pricing and workload scheduling.

The goal is to run flexible workloads when energy is available, cheap or strategically useful — and pause, delay or undervolt them when it is not.

Solar production
Battery state
Electricity price
Grid limits
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Run · Delay · Undervolt · Pause
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GPU · AI · ASIC workloads

Lab notes

Early notes, benchmarks and architecture drafts.

Initial note

RTX 5090 Render Efficiency

Measuring render time, power limits and energy per completed GPU job.

Architecture draft

Energy-Aware Scheduling

How LazyHash decides when compute should run, wait, undervolt or pause.

Research track

Solar + Battery Buffered Compute

Exploring how flexible workloads can follow solar production, battery state and electricity price.

Lab testing

ASIC Undervolting Notes

Practical experiments in lower J/TH mining, immersion cooling and older ASIC reuse.

Roadmap

Early, practical and intentionally transparent.

Active

  • LazyHash landing page
  • GPU Render Studio starter
  • Compute Layer structure
  • Energy Layer concept

Testing

  • RTX render efficiency benchmarks
  • ASIC undervolting
  • Workload scheduling logic
  • Cheap queue pricing model

Future

  • Trusted worker nodes
  • AI batch compute
  • Battery-buffered operation
  • Mining pool experiments

Follow the build

LazyHash is early.

Follow the lab as we test GPU rendering, mining efficiency, energy-aware scheduling and battery-buffered compute.