EGX Research /ALPHA RESEARCH

PUBLIC QUANTITATIVE RESEARCH PAPER

Building a research digital twin of the Egyptian equity market.

EGX /Alpha learns a continuously updated representation of relative equity behaviour, publishes dated model states after each completed EGX session, and later evaluates those states against realised outcomes.

THE RESEARCH QUESTIONWhere does each eligible stock sit relative to the others across 1D, 3D, 5D and 10D forward research horizons?
01 / MARKET REPRESENTATION

The index tells you how a basket moved. The twin studies how eligible stocks differ inside that market.

A market index is a useful benchmark, but it compresses many securities into one aggregate measure. EGX /Alpha studies a different object: the cross-sectional structure of eligible Egyptian equities.

Its purpose-built deep-learning engine learns relationships among price behaviour, trading activity, volatility, liquidity, sector behaviour and broader market state. The public result is not a reproduction of those internal features. It is a bounded research representation: Relative Rank, Model Direction, research horizon, chronology and evidence.

02 / RESEARCH DIGITAL TWIN

A learned analytical representation that updates after completed market sessions.

EGX /Alpha uses “research digital twin” to describe a model that repeatedly maps the observed eligible equity universe into a structured state. After each completed session, the engine processes the available market history and produces a fresh cross-sectional representation across defined forward horizons.

The object being modelled is the observable relative behaviour of eligible Egyptian equities. The twin's scope is market research and education; exchange infrastructure such as order matching, clearing and settlement is outside that analytical object.

03 / DEEP LEARNING

Because market relationships are nonlinear, conditional and time-varying.

Egyptian equities do not move through isolated single-factor rules. Price behaviour can interact with trading activity, liquidity, volatility, sector conditions and the broader market environment. Deep learning provides a framework for learning complex relationships across those interacting observations without reducing the market to a fixed checklist.

The engine is tailored to the Egyptian market rather than assuming that a model trained for larger developed exchanges can simply be scaled down.

04 / CROSS-SECTIONAL QUESTION

Where does each eligible stock sit relative to the others at a selected forward horizon?

For 1D, 3D, 5D and 10D, the system produces a separate forward model view. Relative Rank orders the eligible universe. Model Direction adds a separate Positive, Neutral or Negative market-relative classification.

These are complementary research outputs. Rank describes relative placement; Direction describes a separate forward classification. Neither is a probability of profit, a price target or a transaction recommendation.

05 / TIME-RESPECTING VALIDATION

The future must remain future during testing.

The research process separates earlier history used for learning from later periods used for held-out testing. That time ordering matters because a market model is useful only if its evaluation respects the information that would actually have been available at the time.

Public evidence therefore distinguishes historical training observations, held-out test dates and live matured outcomes.

06 / PROGRESSIVE MODEL MEMORY

Observe → publish → wait → score → learn → challenge → review.

Each public state enters an audit history. When the relevant forward horizon matures, the realised outcome can be scored. That evidence contributes to monitoring, drift assessment and research into challenger model generations.

Production model changes remain governed rather than automatic: candidate improvements must be evaluated before promotion to public issuance, with a human-governed promotion decision.

OBSERVEPUBLISHWAITSCORELEARNCHALLENGEREVIEW
07 / PUBLIC MODEL MEMORY

A twin should preserve its earlier states.

The archive stores dated public rankings so that later readers can inspect what the model published before later market outcomes were known. This prevents the educational experience from collapsing into hindsight.

The public record is deliberately bounded. It exposes the model outputs needed for interpretation and verification while keeping proprietary architecture, feature engineering and internal execution paths private.

08 / REALISED EVIDENCE

Research credibility grows when forecasts can be checked after they mature.

Rank Information Coefficient, top-minus-bottom spread and matured live outcomes provide different views of how relative ordering behaved after the fact. No single statistic is treated as a universal proof. The evidence layer is designed to accumulate a traceable record across horizons and time.

09 / RESEARCH SIMULATIONS

Hypothetical experiments for studying ranking rules, not client performance.

The case studies examine predefined ranking and portfolio rules using historical or subsequently observed market data under stated assumptions. Their purpose is to study the behaviour of model outputs under controlled research conditions. Simulated results do not represent actual client performance, future expected returns or recommendations to employ the simulated strategies.

10 / RESEARCH AGENDA

More evidence, better calibration, stronger market understanding.

The ongoing research agenda is to improve the twin's ability to represent the relative forward structure of eligible Egyptian equities while preserving time-respecting evaluation, reproducibility, drift monitoring and human-governed model promotion.

The goal is not novelty for its own sake. It is a more useful, testable and educational representation of an emerging equity market.

References and verification.

EGX /Alpha sits within a wider body of work on market benchmarks, cross-sectional asset pricing, machine learning and deep learning. External references provide context; EGX /Alpha's public record provides its own inspectable chronology.