🛰 MISSION BRIEFING · CLASSIFIED

The Energy Management Protocol

Energy cannot be created from nothing. It cannot disappear into nothing. Your mission: understand how energy moves between stores through transfer pathways — and why every joule is accounted for.

Energy Stores

Transfer Pathways

∞

Total Energy

⚖ THE FIRST LAW OF THERMODYNAMICS

"Energy cannot be created or destroyed — only transferred or transformed from one store to another."

🔋

What is a Store?

A 'container' that holds energy in a particular form — like a chemical store in a battery or a gravitational store in an aircraft at altitude.

⚡

What is a Pathway?

The mechanism by which energy moves from one store to another — mechanical work, electrical work, heating, or radiation.

📐

The Unit of Energy

Energy is measured in Joules (J). 1 kJ = 1,000 J. A 100W light bulb transfers 100J of energy every second.

🔬

Conservation

In any system, the total energy before = total energy after. Energy 'lost' as heat is never truly lost — it's just transferred to the thermal store of the surroundings.

🔍 SECTION 02 · EXPLORATION

The 8 Energy Stores

Every form of stored energy falls into one of eight categories. Click any card to reveal its secrets, real-world examples, and the formula behind it.

💡 SCIENTIST INSIGHT

Stores are often visualised using a Sankey diagram — a flow diagram where the width of arrows represents the amount of energy being transferred. Wider arrow = more energy flowing through that pathway.

⚡ SECTION 03 · TRANSFORMATION

The 4 Transfer Pathways

Energy doesn't teleport between stores. It travels via four distinct pathways. Identifying the correct pathway is a key exam skill.

⚙️

Mechanical Work

Energy transferred by a force causing movement. This includes pushing, pulling, throwing, and compression. Calculated as: Work = Force × Distance (W = Fd).

Example: A football player in Warrington kicking a ball. The force applied transfers energy from the chemical store (muscles) to the kinetic store (ball).

🔌

Electrical Work

Energy transferred by the movement of electric charge around a circuit. The driving force is potential difference (voltage). This pathway is the backbone of modern technology.

Example: A phone charger in a Manchester home — electrical energy from the mains (chemical store at the power station) charges the battery's chemical store.

🌡️

Heating

Energy transferred due to a temperature difference. Heat always flows from hotter to cooler objects. Three mechanisms: conduction, convection, and radiation.

Example: A hot mug of tea in Liverpool — thermal energy transfers by conduction through the mug into your hands. The temperature difference drives the transfer.

☀️

Radiation

Energy transferred by electromagnetic waves — including light, infrared, UV, and radio waves. Crucially, this pathway requires no medium; it works through a vacuum.

Example: The Sun transfers nuclear energy to Earth's thermal and light stores via electromagnetic radiation — 150 million km through empty space.

⚡ ENERGY TRANSFER — WORKED EXAMPLE: ELECTRIC KETTLE

⚗️ Chemical Store
(Coal at Power Station)

→

Electrical
Work

→

🔌 Electrical Store
(Mains electricity)

↓

Heating pathway (conduction)

🌡️ Thermal Store
(Water in the kettle)

⚠ WASTED ENERGY

Some thermal energy transfers to surrounding air (thermal store of surroundings) — but total energy is ALWAYS conserved.

🔬 SECTION 04 · APPLICATION

The Conservation Lab

Apply the Law of Conservation of Energy. Select a real-world scenario, set the transfer amount, and observe how energy redistributes across stores. The total must always balance.

⚡ ENERGY BALANCE SIMULATOR

✅ ENERGY CONSERVED — Total: 1000 J

Select Scenario:

TRANSFER CONTROLS

Source Store

Destination Store

Transfer Amount

100 J

› Simulator initialised. Select a scenario and execute a transfer.

📋 SECTION 05 · ASSESSMENT

Knowledge Check

5 high-level questions to test your understanding of energy stores, transfers, and conservation. Detailed feedback is provided for every answer.