BEYOND
BRUTE FORCESYSTEMS
← Expanding Worlds

PRODUCT PRESENTATION · TWELVE SLIDES

Expanding Worlds.
Compact seeds. Expanding possibilities.

For game, digital-twin and simulation teams: explore the compact world representations behind BBF’s playable prototypes.

UK patent application GB2625572.9 · Pending

THE TECHNOLOGY

Compact seeds. Expanding possibilities.

Build seed-generated scenes, distinctive creatures and linked or nested world designs that reconstruct requested detail from reusable foundations.

Slide 1 of 12

Use the buttons or focus the presentation and use the left and right arrow keys.

Read the presentation.

1. Compact seeds. Expanding possibilities.

Build seed-generated scenes, distinctive creatures and linked or nested world designs that reconstruct requested detail from reusable foundations.

2. Rich worlds do not need repeated expanded content.

Reuse compatible scene foundations, preserve accepted changes and reconstruct the content needed for the next view or interaction. The opportunity is varied worlds with lighter compatible updates.

3. 99.913% expanded-content byte avoidance.

In eight six-frame sessions, a 462 B average packet represented 531,278.5 B of expanded content. All 48 compared frames matched. Shared runtime and assets were already retained; packet bytes are separate from total application memory.

4. Explore linked places and living creatures.

Recorded prototypes include a 13-zone nested-world inspector with six linked-world controls. A separate animated-creature example used a 244 B recipe plus a retained shared renderer.

5. Return to a place. Reconstruct what changed.
  • Agree the shared runtime, content and current world revision.
  • Record a bounded change and its source.
  • Reconstruct the requested checkpoint or view.
  • Compare the recovered state and image with the declared result.
6. More places, creatures and history from reusable foundations.
  • Persistent scene history
  • Varied creatures and changing places
  • Reusable content across compatible updates
  • A clear route to replay and recovery
7. Eight checkpoints. Exact reconstruction.

The recorded finite world-state study reconstructed 8/8 selected checkpoints exactly across two worlds, each run for 1,800 steps.

A separate graphics study recorded 48/48 state/frame matches. These are distinct studies.

8. Count the shared foundations as well as the update.

In the world-state fixture, recipe-only representation was 99.05% smaller. Overall retained size was 0.55% smaller when the required shared basis was included.

Separate local verification workflows took 1.47× and 1.64× the conventional time. Complete game size and frame rate need their own comparison.

9. For game, digital-twin and simulation teams.
  • Games and evolving environments
  • Simulation and digital twins
  • Checkpoint and replay workflows
10. A distinct role in a wider system.

Expanding Worlds addresses interactive content and retained changes. Glyphtronix supplies structured representation; Prooftronix checks required conditions; HoloRenderer addresses the requested view. GLYX and Seed State address files and working state. Evaluate their combination in your target application.

11. Bring a real workload. Agree the complete comparison.

Bring one changing scene, a target platform and the output you need to preserve.

  • Choose one changing scene and a strong existing engine route.
  • Hold content, output quality and target hardware constant.
  • Count shared assets, update bytes, reconstruction, rendering, memory and checks.
12. Explore the technology. Start a conversation.

Watch the available explainer, review the recorded work and contact Beyond Brute Force Systems Limited. Evaluation scope and licensing are agreed by email.