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Systems Thinking

Level design is most effective when space, systems, and player behavior are treated as interconnected structures rather than isolated elements. My work focuses on building scalable gameplay environments that integrate encounter logic, mission flow, and systemic mechanics within Unreal Engine. I prioritize clarity, modular implementation, and production-aware execution to ensure levels remain readable, extensible, and performance-conscious throughout development.

Design Philosophy

I approach level design as the intersection of space, systems, and player behavior. A level is not just geometry - it is a structured environment that supports mechanics, pacing, narrative intent, and production constraints simultaneously.

My focus is on building spaces that:

  • Support systemic gameplay rather than scripted spectacle

  • Scale with player agency and multiple playstyles

  • Communicate clearly through layout and sightlines

  • Maintain readability under combat pressure

  • Hold up across repeated playthroughs

The goal is not simply to build encounters, but to build repeatable systems within encounters.

2

Encounter Structuring Methodology

When designing encounters, I structure them in layers:

1. Spatial Foundation

  • Sightline control

  • Verticality management

  • Cover rhythm and density

  • Choke points vs. release spaces

2. Behavioral Layer

  • AI archetype synergy

  • Spawn logic timing

  • Reinforcement escalation curves

  • Threat prioritization

3. Player Pressure Curve

  • Entry tension

  • Mid-encounter escalation

  • Climax moment

  • Decompression window

Encounters are tuned for clarity first, intensity second.

3

Blueprint & Implementation Strategy

I implement content directly in Unreal using Blueprint-driven logic.

My scripting approach prioritizes:

  • Modular logic structures

  • State-driven objective flow

  • Clear trigger ownership

  • Debug visibility

  • Designer-friendly iteration

I favor:

  • Reusable encounter logic blocks

  • Data-driven parameters when possible

  • Controlled dependency chains

  • Clean naming conventions for scalability

The goal is to build systems that other designers can understand and extend.

4

Mission & Objective Flow Design

Mission scripting is structured as a state machine, not a linear sequence.

Each objective state:

  • Defines player goal

  • Controls gating conditions

  • Broadcasts UI feedback

  • Manages fail/success branches

  • Cleans up previous state logic

I focus on:

  • Preventing soft-lock states

  • Supporting player re-entry after failure

  • Maintaining multiplayer sync integrity (where applicable)

  • Keeping objective logic readable for iteration

5

Iteration & Playtest Discipline

Iteration is structured, not reactive.

During playtests I evaluate:

  • Player readability under pressure

  • Combat pacing consistency

  • Spawn fairness perception

  • Navigation clarity

  • Friction points in objective logic

Adjustments are made based on:

  • Observed player hesitation

  • Overloaded cognitive moments

  • Unexpected AI behavior stacking

  • Frame-rate impact during peak combat

Encounters are tuned until player failure feels earned rather than arbitrary.

6

Performance & Production Awareness

Level design must respect production realities.

I account for:

  • Streaming volume boundaries

  • AI density cost

  • Memory footprint considerations

  • Lighting and visibility performance impact

  • Multiplayer replication overhead (when applicable)

I design within constraints rather than against them.

7

Cross-Discipline Collaboration

Effective systemic design requires alignment across teams.

I regularly collaborate with:

  • Engineering on system constraints and implementation feasibility

  • Narrative on environmental storytelling and pacing beats

  • Animation on combat readability and timing

  • Art on sightline and silhouette clarity

  • Audio on tension reinforcement

Clear communication and documented intent reduce downstream rework.

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