Custom ModelsTime-SeriesReinforcement LearningMLOps

Model toMarket

Custom-built machine learning models trained on your data, tuned on dedicated compute, and deployed into your infrastructure. Every model is purpose-built for your problem.

Full MLOpsAutomated Pipeline
Custom BuiltEvery Model Tailored
PyTorchONNX Production Stack
Custom Model Creation

Your Data, Your Model

We design, train, and deploy machine learning models built entirely around your problem. PyTorch stack, tuned on dedicated compute, exported to ONNX for production.

PyTorch PyTorch
Keras Keras
scikit-learn scikit-learn
ONNX ONNX
Optuna Optuna
Python Python
RabbitMQ RabbitMQ
AWS AWS
PyTorch PyTorch
Keras Keras
scikit-learn scikit-learn
ONNX ONNX
Optuna Optuna
Python Python
RabbitMQ RabbitMQ
AWS AWS

Custom Architecture Design

Every model is designed from the ground up for your dataset. We converge on an agreeable loss function, design the architecture, and train until your acceptance criteria are met.

Parallel Hyperparameter Tuning

Optuna-based HPT with custom search space division across GPU nodes. We run parallel trials on dedicated infrastructure to find optimal configurations faster than sequential cloud runs.

Dedicated Compute

Training runs on dedicated GPU infrastructure β€” private datacenter or cloud, matched to your project's requirements. Custom FSDP and data parallelism across nodes when model size demands it.

MLOps Pipeline

AWS Step Functions orchestrate training jobs, cross-validation, and deployment. Lambda functions handle triggers and monitoring. Models go from notebook to production with a clear, repeatable pipeline.

Data Drift Monitoring

Production models degrade. We build retraining pipelines that detect distribution shift and trigger automated re-tuning. Ongoing maintenance agreements keep your models accurate.

Feature Engineering & EDA

Exploratory data analysis, feature extraction, and dataset scaling pipelines. We clean, transform, and structure your raw data into training-ready datasets with reproducible processing steps.

Proprietary Model

We Build Models Like This

Deep Volatility is our own multi-variate time-series transformer β€” proof that we practice what we sell.

Flagship Model

Deep Volatility

LNM β€” Large Numbers Model

A multi-variate time-series transformer trained on financial data across S&P 100, BIST 100, TEFAS funds, and 100+ cryptocurrency pairs. Ingests multi-source inputs β€” price, volume, order flow, macro indicators β€” and outputs multi-frame volatility and directional forecasts. Event-aware architecture handles dividend dates, FED announcements, and regime changes without manual feature flags.

Client instances are deployed via token-based access with an auto-fine-tune CLI that adapts the base model to private datasets. Automatic hyperparameter tuning runs on dedicated compute so clients get production-ready models without provisioning anything.

Multi-Variate TransformerS&P 100 + BIST 100 + CryptoEvent-AwareAuto Fine-Tune CLIToken-Based AccessPyTorch + ONNX

Multi-Source Ingestion

Price, volume, order flow, macro calendar, and alternative data feeds combined into a single tensor representation per time step.

Multi-Frame Forecasting

Simultaneous predictions across multiple time horizons in a single forward pass. Short-term for execution timing, long-term for directional conviction.

Continuous Retraining

Automated drift detection triggers retraining pipelines. Models stay current with shifting market regimes without manual intervention.

Reinforcement Learning & Execution

Agents That Act

Custom reinforcement learning agents trained via StableBaselines on domain-specific environments. From backtesting to autonomous real-time execution.

Custom RL Environments

StableBaselines-powered backtesting on custom Gymnasium wrappers. We model your domain as a Markov decision process, define reward shaping, and train agents with PPO or SAC until behaviour meets acceptance criteria.

Risk-Constrained Training

Hard safety constraints embedded into reward functions and observation spaces. Agents learn optimal behaviour without ever exploring forbidden state-action regions during live execution.

Simulation-First Validation

Agents are validated on historical replay and synthetic data before any live deployment. Walk-forward validation ensures models generalise to unseen market conditions.

Imperium Product

Legion

Autonomous RL Ensemble

A custom A3C (Asynchronous Advantage Actor-Critic) implementation designed for non-episodic, continuous environments. Legion deploys a distributed ensemble of RL agents that independently track targets, manage multi-wallet balances, and execute low-latency position entry ahead of market movements β€” currently monitoring 1,500+ targets simultaneously.

Each agent maintains its own risk budget, position tracking, and exit strategy. The ensemble coordinates through shared state without a central controller, enabling horizontal scaling as new targets are added.

Custom A3CNon-Episodic1.5K+ TargetsMulti-WalletRisk ManagementReal-Time Execution
MLOps

Automated, End to End

From raw data to production model β€” every step is orchestrated, versioned, and repeatable. No notebooks left running, no manual hand-offs.

01
Ingest
02
Feature
03
Train
04
Tune
05
Validate
06
Register
07
Deploy

Data Collection & Scraping

Automated scrapers, API ingestion, and sensor data aggregation pipelines. Raw data flows into versioned datasets with full lineage tracking β€” no manual exports.

Feature Engineering

Automated and manual feature extraction, scaling, and transformation pipelines. Reproducible processing steps turn raw signals into training-ready feature stores.

Automated Training

Training jobs run on AWS Deep Learning Containers with pinned framework versions. No SageMaker vendor lock β€” just Docker images, step functions, and your own orchestration logic.

Hyperparameter Tuning

Optuna-driven search across GPU nodes with custom search space division. Parallel trials converge on optimal configurations faster than sequential cloud runs.

Cross Validation & Registry

K-fold and walk-forward validation baked into every training run. Passing models are tagged, versioned, and pushed to a custom model registry with full metadata and reproducibility artifacts.

Continuous Retraining

Drift detection triggers automated retraining cycles. New data flows through the same pipeline β€” feature extraction, training, validation, registry β€” without human intervention.

No Vendor Lock-In

Training runs on AWS Deep Learning Containers β€” pre-built Docker images with pinned PyTorch and CUDA versions. We orchestrate with Step Functions and Lambda, not SageMaker. You own every artifact and can move the entire pipeline to any cloud or on-prem infrastructure without rewriting a single job.

AWS DL ContainersStep FunctionsCustom RegistryCross ValidationDrift DetectionReproducible
Inference & Deployment

From Training to Production

ONNX export, containerised microservices, and message-driven architecture. Models ship to production with the same rigour as any backend service.

ONNX Export Pipeline

Models trained in PyTorch are exported to ONNX for runtime-agnostic deployment. Smaller binaries, faster cold starts, and cross-platform compatibility without rewriting inference code.

Containerised Inference

Each model runs in its own container with pinned dependencies and health checks. Horizontal scaling behind a load balancer β€” spin up more instances when throughput demand spikes.

RabbitMQ Message Bus

Inference requests and results flow through RabbitMQ task queues. Decoupled producers and consumers mean upstream services never block on model latency.

Monitoring & Alerting

Inference latency, throughput, error rates, and model output distributions are tracked in real time. Alerts fire before degraded predictions reach downstream consumers.

Get in Touch

Let's Build Something Together

Location

Istanbul, TΓΌrkiye

Have a project in mind or want to explore how we can help? Drop us a line or head to our contact page.

Let's Talk