Technical Sheets, Not Summaries.

Each mission is presented as a practical concept sheet: core principle, device structure, operating loop, and a simplified visual demo. No graphs, no academic clutter — only what a builder needs.

Format Homepage + 7 mission sheets
Each sheet includes a small demo.

Design Rule Semiconductor-style visuals
multi-cell arrays / fields / BIOS console.

Contact kcim90@naver.com

7 Core Missions

1) Enhanced Memory System

Semiconductor multi-cell array — capacity grows by light stimulation.

Key idea: “memory density grows” via stimulation, not fixed charge storage.

2) Multi Logic Semiconductor

Protein channel multi-state — electrical stimulus drives logic levels.

Key idea: multi-level states (not binary) from protein channel transitions.

3) Fusion Interface (MIC)

Multiple Integration of Connection — unified multi-bus bridge.

Key idea: connect everything with a single negotiation layer and safety rules.

4) Bio Power Generator

Self-charging bio-electric module — pulse harvesting & storage.

Key idea: bio pulse → rectify → buffer → deliver stable DC.

5) Superintelligent AI-Driven Vehicle

AI autonomy stack — perception, safety, intention, control.

Key idea: “AI co-driver” for safety-first decision loops.

6) Hyper Propulsion

Field manipulation concept — direction control by vector discipline.

Key idea: stabilization + vector shaping + controlled thrust envelope.

7) Mega Robot

Robot BIOS architecture — safe boot, recovery, AI decision layer.

Key idea: BIOS-like layer for power, safety, recognition, recovery.

1) Enhanced Memory System

A semiconductor-style multi-cell array where storage density does not stay fixed. Instead, stimulation increases stable states inside the sealed cell stack. The “memory capacity grows” by controlled stimulation and stabilization loops.

Core Principle

Multi-cell array with sealed material stack.
Stimulation increases stable internal states per cell.
Readout uses state classification (multi-level) rather than pure binary charge.

Device Sketch (Concept)

Top electrode / bottom electrode
Sealed layer: gel-like active medium
State growth: controlled by stimulus + rest + lock cycle

DEMO — “Capacity Growth” by Light Stimulation (visual only: multi-cell states brighten and lock)

2) Multi Logic Semiconductor

A protein-channel-inspired multi-state logic element. Electrical stimulation changes channel configuration into multiple stable conduction levels. A chip becomes an array of multi-level cells: not only 0/1, but many logic states.

Core Principle

Protein channel has multiple stable conformations.
Electrical stimulus shifts the state distribution.
State = logic level; multi-level outputs enable dense storage & logic.

Chip Structure (Concept)

Array of channel-cells with readout electrodes.
Each cell outputs discrete conduction levels (L0~L4).
Calibration + classification yields stable multi-logic operation.

DEMO — Electric Stimulus → Multi-State Logic (no graphs; only semiconductor-style multi-cell levels)

3) Fusion Interface (MIC — Multiple Integration of Connection)

A unified connection layer that routes multiple device buses and protocols through one “negotiation core”. Think: one secure connector language to link sensors, machines, AI modules, and controllers.

Core Principle

Universal negotiation layer: identity, capability, permission.
Single interface bridges multiple buses and formats.
Safety rules: allow / deny / sandbox / rate-limit.

Operating Loop

Discover → handshake → policy → data transform → delivery.
Continuous health checks and anomaly isolation.
Fallback paths for degraded mode.

DEMO — Multi-Bus Fusion Map (connections negotiate + stabilize)

4) Bio Power Generator

A self-charging module that harvests biological pulse signals, rectifies them, buffers energy, and outputs stable DC for sensors and micro-systems.

Core Principle

Pulse harvesting (bio-electric source).
Rectifier + buffer capacitor + regulation.
Stable output for low-power devices.

Why It Matters

Always-on sensing with minimal maintenance.
Small autonomous nodes without frequent battery change.
Energy security for distributed systems.

DEMO — Pulse Harvest → Buffer Charge (visual: pulses fill the storage bar)

5) Superintelligent AI-Driven Vehicle

A safety-first autonomy stack: perception, prediction, intention management, and control. The key is not speed — it is reliable decision loops under uncertainty.

Core Modules

Perception: multi-sensor fusion into a consistent world model.
Prediction: motion forecasts + hazard scoring.
Control: safe trajectories + fail-safe fallback.

Safety Rules

Hard constraints: collision avoidance, speed envelope.
Soft constraints: comfort, energy, efficiency.
Emergency mode: minimal risk maneuver.

DEMO — Sensor Fusion HUD (visual: objects tracked + risk ring)

6) Hyper Propulsion

A field-control concept focused on stability and directional vector discipline. The mission is to define controllable envelopes and prove repeatable vector steering.

Core Principle

Field generation and controlled direction shaping.
Stabilize before thrust: control loops first, power later.
Vector steering via regulated rotation and alignment.

Validation Roadmap

Measure repeatability: same input → same vector.
Noise isolation and safety envelope.
Directional control in 4-axis adjustment.

DEMO — Vector Field Steering (visual: field lines align and push direction)

7) Mega Robot

A Robot BIOS architecture that sits below high-level AI. It governs safe boot, recognition, power gating, fault recovery, and minimal survival motion. The BIOS is the robot’s “truth layer”.

BIOS Layers

Power & Safety Gate
Hardware Recognition
Recovery & Rollback
AI Decision Layer (bounded)

Boot / Recovery

Boot states: INIT → CHECK → ARM → READY
Fault states: WARN → SAFE → RECOVER
Always keep minimal control alive.

DEMO — Robot BIOS State Console (visual: state transitions + safety gates)