Research

Models, agents, and the systems that make them useful.

My research work focuses on multimodal intelligence, computer use, long-horizon agent execution, and efficient model runtimes across CPU and GPU hardware.

Active programme

Senon AI

An AI ecosystem spanning language, vision, computer-use, voice, agent, and orchestration systems.

  • Thread-Ripper 1.2 and 3.5
  • Capybara Vision
  • Platypus
  • Capybara STT
  • Capybara TTS
  • VERONICA
  • AI councils and hierarchical agents
Active programme

CPU and GPU inference optimisation

Research into faster, more memory-efficient model execution across heterogeneous hardware.

  • Matrix-operation optimisation
  • Memory-bandwidth efficiency
  • Cache-aware execution
  • Low-level Rust components
  • Scheduling and throughput
Senon AI model systems

A specialised family, not one general-purpose wrapper.

The Thread-Ripper models are sparse mixture-of-experts architectures fine-tuned from open-source base models. Each surrounding model holds a narrower role inside the wider ecosystem.

Language and agent model

Thread-Ripper 1.2

The primary model in the Thread-Ripper family: a sparse mixture-of-experts architecture at 1.1 trillion total parameters with 32 billion active per token, across a one-million-token context window, fine-tuned from an open-source base for reasoning, tool use, agent execution, software development, and organisational workflows.

  • Sparse MoE: 1.1T total / 32B active
  • 1M-token context
  • Tool execution
  • Long-horizon agent tasks
Advanced multimodal model

Thread-Ripper 3.5

The advanced multimodal Thread-Ripper model, sparse mixture-of-experts at 1.6 trillion total parameters with 49 billion active per token across the same one-million-token context, extended to understand several information types including native video rather than depending entirely on extracted frames or transcripts.

  • Sparse MoE: 1.6T total / 49B active
  • 1M-token context
  • Native video understanding
  • Hierarchical agent spawning
Hybrid computer-use model

Capybara Vision

A hybrid approach to computer use that does not reason about pixel positions at all, pairing a language model with a high-precision OCR pipeline to read an interface and work out what it means.

  • Language model and OCR pipeline
  • Interface reading
  • No pixel-position dependency
  • Multi-step computer tasks
Pixel-grounded computer use

Platypus

A conventional computer-use model that understands pixels directly, grounding its actions in the image itself for the work where spatial position is what matters.

  • Pixel-level grounding
  • Precise interface interaction
  • High-accuracy input control
  • Workflow automation
Speech recognition model

Capybara STT

A 1.75-billion-parameter speech-recognition model trained in-house, keeping voice input transcription inside Senon Solutions' infrastructure rather than routing audio to a hosted transcription API.

  • 1.75B parameters
  • Conversational transcription
  • Voice command input
  • VERONICA integration
Voice model

Capybara TTS

A 3-billion-parameter speech-synthesis model providing VERONICA's spoken output for conversation, application feedback, and voice-controlled workflows.

  • 3B parameters
  • Conversational speech
  • Application feedback
  • Voice workflows
Research standard

Research from model behaviour to execution efficiency.

The programme connects multimodal intelligence, computer use, agent coordination, runtime performance, memory efficiency, and scheduling into one applied research direction.