Principles
How we approach intelligence
Four convictions that shape every architecture, model and deployment decision we make.
Capabilities stack
Deep expertise across the AI spectrum
We do not just use models. We engineer the full stack, from data infrastructure through specialised learning systems.
Language models
Fine-tuning and PEFT
LoRA, QLoRA, full fine-tunes on domain corpora
RAG architectures
Vector stores, hybrid search, re-ranking pipelines
Agent frameworks
Tool-using agents, multi-agent orchestration
Evaluation
Automated benchmarks, human-in-the-loop scoring
Vision and perception
Detection and segmentation
YOLO, DETR, Mask R-CNN, SAM-class models
Anomaly detection
Unsupervised and few-shot industrial inspection
Multimodal models
Vision-language models for rich understanding
Edge vision
TensorRT, ONNX and embedded deployment
Learning systems
Deep learning
Transformers, CNNs, GNNs, diffusion models
Hyperparameter tuning
Bayesian optimisation, population-based training, Optuna
Reinforcement learning
PPO, SAC, model-based RL, safe RL
Continual learning
Online adaptation without catastrophic forgetting
Data platforms
Warehousing
Snowflake, BigQuery, Redshift, lakehouse patterns
Pipelines
Airflow, dbt, Spark, real-time streaming (Kafka)
Feature stores
Offline and online features for consistent training and serving
Governance
Lineage, quality checks, access control, GDPR alignment
Optimisation
Hyperparameter tuning and fine-tuning mastery
Model performance is not accidental. We apply systematic search, Bayesian optimisation and parameter-efficient fine-tuning to extract maximum accuracy under real compute and latency constraints.
Breadth vs depth
Every fine-tune is a trade. Push a model deep into one domain and it becomes sharper on that task but narrower everywhere else; keep it broad and it stays flexible but rarely reaches expert-level precision. We treat the balance as an explicit design decision: parameter-efficient adapters preserve the base model's general capability while adding depth exactly where the business needs it, and retrieval carries the long tail of knowledge that should not be baked into weights.
Choose a technique for details
Technique 01
Bayesian optimisation
Instead of brute-force grid or random search, a probabilistic surrogate model predicts which hyperparameter settings are most promising and where uncertainty is highest. Each training run updates the surrogate, so the search converges on strong configurations in a fraction of the runs — critical when a single run costs hours of GPU time.
Physical AI
Bridging algorithms and machines
Industrial systems and robotics demand AI that is fast, robust and tightly integrated with control hardware. We specialise in closing that loop.
- Real-time inference on industrial PCs and edge GPUs
- Integration with PLCs, SCADA and MES platforms
- Sim-to-real RL for robotic manipulation
- Digital twins for safe offline training
- Safety-certified deployment patterns

