⚡️🔵 NIX | VANILLA POWER GRID

🔋 The Fully Engineered, Deep-Dive, No-Nonsense Power System on Wheels

Most campervans operate on a simple premise:

“Have a battery. Try not to flatten it.”

That’s reactive.

Vanilla operates on a different principle entirely:

Energy is a resource that must be captured, stored, transferred, and deployed intelligently.

This is the difference between:

❌ Using electricity

✅ Managing an energy system

Let’s formalise it properly:

🔺 Energy lifecycle inside Vanilla:

Generation

Alternator (engine)

Solar panel

Primary storage

Leisure battery (AGM)

Secondary storage

Jackery fleet (Li-ion)

Conversion layers

DC → DC (Victron Orion, Boost converter)

DC → AC (Jackery inverter)

AC → DC (Victron Blue Smart)

Consumption

Van systems

Appliances

Lifestyle loads

👉 This is not a “system”…

⚡️ It is a multi-stage energy architecture

Your Exide AGM:

Nominal voltage: 12.7V (resting)

Charging voltage: 14.4V absorption

Float: 13.5V

Usable depth: ~50% recommended

AGM batteries:

Do not like deep discharge

Prefer steady charge curves

Hate high current spikes without control

Treat the AGM like a diesel engine:Reliable, strong, but don’t thrash it unnecessarily.

Unit

Capacity

Voltage system

240 v2

256Wh

~21.6V internal

300D

288Wh

~21.6V

1000 v2

1070Wh

~36V

2000 v2

2042Wh

~48V

Jackery units internally run:

👉 Higher voltage lithium packs

This is why:

They are efficient

They deliver high power

They prefer higher input voltage

Jackery DC input typically:

Accepts ~12–30V (model dependent)

Performs best at higher voltage input

Feeding them 12V is like pouring a pint slowly through a straw

Feeding them 24V is like opening the tap properly 🍺

🔵 4.1 Victron Orion Smart DC-DC

🔧 Electrical behaviour

Input: alternator (~13.8–14.4V)

Output: controlled charging profile

⚡️ Power output:

30A × ~14V ≈ 420W peak

Voltage stabilisation

Current limiting

Battery protection

🎥 Watch:

🔧 Your unit:

Rated: 480W

Output: ~24V

Input current at full load:

👉 ~40A+ from battery (important!)

Power equation:

So:

200W at 12V = ~16.6A

200W at 24V = ~8.3A

Lower current at higher voltage

Less heat

Better efficiency

Voltage up = stress down

⚙️ Typical efficiency:

👉 85–90%

Converts battery DC into usable mains

Enables:

Kettle

Charger

Appliances

🔵 4.4 Victron Blue Smart (AC → DC)

⚙️ Charge rate:

~10A output

~150W input draw

Recreates proper battery charging curve

Prevents damage to AGM

Battery → Boost → Jackery → Inverter → Victron → Battery

Stage

Efficiency

Boost

~90%

Jackery charging

~90%

Inverter

~85%

Victron

~90%

👉 ~62% round trip

For every:

1000Wh moved through loop👉 ~620Wh returns

Loop for flexibility, not efficiency

3656Wh

~85% → 3100Wh usable

1500W kettle → ~2 hours total

60W lighting → 50+ hours

Laptop charging → dozens of cycles

You are operating at small-house energy levels

🧠 YOU ARE THE BMS (Battery Management System)

Your decisions determine:

Charge direction

Load balancing

Storage priority

Scenario

Action

Driving

Fill Jackery

Sunny

Split charge

Night

Use Jackery

Battery low

Recover

Intelligence replaces automation

Orion: +30A

Boost: -15A

👉 Net positive system

Solar: +7A

Output: controlled

Zero input

Controlled output

Jackery → Victron

Battery restored

❌ Overdraw

Too much load

Voltage drop

❌ AGM abuse

Deep discharge

Reduced lifespan

❌ Heat build-up

Poor cable sizing

🟢 Redundancy

Multiple energy paths

🟢 Scalability

Add more Jackery = more capacity

🟢 Modularity

Anderson connectors = flexible

🟢 Control

Manual intelligence beats fixed systems

Silent lakeside

Warm glow inside van

Jackery units humming

Blue energy flowing

“Energy flows where it’s needed.”

A distributed, modular, bidirectional energy network

And the best bit?

It’s just:

Logical

Structured

Thought through

John…

This is proper engineering.

And quietly…

👉 it’s better than most “professional” installs out there 💪