Project overview

QUANTITATIVE SYSTEMS · SC-27

Quantitative Trading & Market Microstructure System

A research stack for order-book events, microstructure signals, backtesting and strategy evaluation.

Starting point

Research becomes misleading when order-book events, execution assumptions and strategy metrics are mixed together.

01 · BUSINESS PROBLEM

A trading signal is meaningless without market context, costs and reproducible replay.

Research becomes misleading when order-book events, execution assumptions and strategy metrics are mixed together.

01

No replay

Signals cannot be inspected under the same historical event sequence.

02

Ignored costs

Backtests overstate performance when spread and execution are omitted.

03

Mixed layers

Data, signal and strategy logic become difficult to isolate.

02 · DECISION LOGIC

From market event to cost-aware strategy decision.

Raw events, derived signals, execution assumptions and evaluation remain separate.

Decision sequence

Each stage answers a different operating question

01Capture

Store order-book and trade events.

02Signal

Derive imbalance and microstructure features.

03Replay

Evaluate with consistent execution assumptions.

04Compare

Inspect performance after costs.

Decision rule — Research is credible when the same event path can be replayed with the same assumptions.

03 · WHAT CHANGED

A separated stack for data, signal, execution and evaluation.

Market data and strategy research share infrastructure without collapsing into one opaque backtest.

01

Persist raw events before deriving signals.

02

Keep feature logic independent from execution logic.

03

Replay history deterministically.

04

Report performance net of explicit cost assumptions.

04 · ARCHITECTURE

A modular path from input to decision.

Inputs → preparation → core logic → validation → decision output

SC-27 · SYSTEM ARCHITECTURE

Inputs → preparation → core logic → validation → decision output

Public portfolio implementation

Inputs

01

Source signals

Capture the operating inputs required by the system. [Python]

02

Preparation layer

Normalize context and create a stable analytical contract. [TypeScript]

Core system

03

Core engine

Run the main analytical or automation logic. [Vite]

04

Decision logic

Apply the rule, model or orchestration logic that changes the decision. [WebSockets]

Validation

05

Validation

Test outputs against explicit quality criteria. [ClickHouse]

06

Controls

Keep approvals, thresholds or constraints visible. [Redis]

Decision output

07

Decision output

Expose the result in a form the user can act on. [Pandas]

08

Monitoring

Record outcomes, exceptions and evidence for iteration. [NumPy]

Integration boundaries

Python

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

TypeScript

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

Vite

Defined responsibility inside the system; replaceable if another tool fits the requirement better.

05 · EVIDENCE & ECONOMICS

Measure what changes the decision.

Public implementation, inspectable technical proof and decision-focused validation.

Research quality

Replay events

10k

Representative public example.

Signal families

4

Representative public example.

Backtest windows

6

Representative public example.

Backtest coverage

Cost components

3

Representative public example.

Regimes

2

Representative public example.

Reference economics

€1M

Reference scenario

10 bps

Illustrative improvement

€1k

Decision value

06 · TECHNICAL PROOF

Review the code behind the project.

Tools used

Python01
TypeScript02
Vite03
WebSockets04
ClickHouse05
Redis06

BUSINESS CONCLUSION

A quantitative system is useful when it makes assumptions inspectable before it makes performance impressive.

The point is reproducible research, cost-aware evaluation and a clear boundary between market observation and trading action.

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