NOVA GRID / 001

55.6761° N / 12.5683° E

ENERGY,

REWIRED.

Role

Role

Energy infrastructure

Scope

Scope

Generation · Storage · Software

Status

Status

Operating in 12 markets

Intelligent infrastructure for a cleaner, more resilient energy system.

Grid node / A-01

220 MWh

Response time

< 200 ms

Grid / Storage / Software

FIG. 001 — SYSTEM ELEVATION

§ 01 — System

One system.

Three layers.

Generation, storage and control are designed together rather than bolted on — so every megawatt is placed, held and dispatched by the same logic.

01 —

GENERATE

Renewable energy

SOLAR · WIND · HYDRO

02 —

STORE

Battery infrastructure

LI-ION · 2H–8H DURATION

03 —

OPTIMIZE

Intelligent energy management

FORECAST · DISPATCH · TRADE

§ 02 — Energy Flow

How power moves.

A simplified view of generation, storage and demand inside a single NOVA GRID installation.

Solar

42.8

MWh

Generated

Grid

31

%

Grid dependency

Storage

18.4

MWh

Stored

Building

8.6

MW

Load served

Illustrative values — replace with system-specific data.

FIG. 002 — ENERGY FLOW

§ 03 — Technology

Infrastructure that thinks ahead.

Three technologies, one control layer — each designed so the others can rely on it.

Conductor array / detail

FIG. 003 — TRANSMISSION

01

01

Generation

Integrating renewable energy sources.

SOLAR · WIND · HYDRO · PPA

02

02

Storage

Flexible battery systems designed for changing demand.

2H–8H DURATION · MODULAR

03

03

Intelligence

Software that balances generation, storage and consumption.

FORECAST · DISPATCH · SETTLEMENT

§ 04 — Impact

Measured in outcomes.

Performance is reported the way infrastructure is judged — availability, throughput and avoided emissions.

01

82 GWh

Clean energy managed

02

41,000 t

Potential carbon reduction

03

99.2%

System availability

04

24/7

Energy intelligence

Illustrative data — replace with company-specific metrics.

TABLE 001 — PERFORMANCE

§ 05 — Solutions

Built for complex energy systems.

Four operating contexts, one architecture.

01

Commercial

Energy management for large facilities.

1–20 MW

01

Commercial

Energy management for large facilities.

1–20 MW

01

Commercial

Energy management for large facilities.

1–20 MW

02

Industrial

Resilient infrastructure for energy-intensive operations.

20–100 MW

02

Industrial

Resilient infrastructure for energy-intensive operations.

20–100 MW

02

Industrial

Resilient infrastructure for energy-intensive operations.

20–100 MW

03

Infrastructure

Grid-scale storage and optimization.

100 MW+

03

Infrastructure

Grid-scale storage and optimization.

100 MW+

03

Infrastructure

Grid-scale storage and optimization.

100 MW+

04

Communities

Distributed energy systems for local resilience.

0.5–10 MW

04

Communities

Distributed energy systems for local resilience.

0.5–10 MW

04

Communities

Distributed energy systems for local resilience.

0.5–10 MW

§ 06 — Selected Systems

Three systems, in operation.

03 / 40+ BUILT

03 / 40+ BUILT

01

Commercial

Copenhagen

2024

Installed capacity

14.2 MW

14.2 MW

14.2 MW

Commercial Energy System

Rooftop generation, 6.4 MWh of storage and a demand-response layer across nine buildings — cutting peak grid draw by more than a third.

View system

02

Infrastructure

Stockholm

2023

Installed capacity

220 MWh

220 MWh

220 MWh

Grid-Scale Storage System

A frequency-response asset sitting directly on the transmission network, dispatching in under 200 milliseconds to hold the regional grid stable.

View system

03

Industrial

Rotterdam

2025

Installed capacity

38.6 MW

38.6 MW

38.6 MW

Industrial Generation System

Generation, storage and process load modelled as one system, so the site runs on its own supply for the majority of the operating year.

View system

§ 07 — Process

From energy demand to system design.

Four stages, one continuous loop.

01

ASSESS

Understand the site’s energy profile.

01

ASSESS

Understand the site’s energy profile.

02

DESIGN

Model generation, storage and demand.

02

DESIGN

Model generation, storage and demand.

03

DEPLOY

Integrate the physical infrastructure.

03

DEPLOY

Integrate the physical infrastructure.

04

OPTIMIZE

Continuously improve system performance.

04

OPTIMIZE

Continuously improve system performance.

§ 08 — Facility

Storage, at grid scale.

DRAWING 004 — REV C

DRAWING 004 — REV C

Storage capacity

120 MWh

120 MWh

System output

80 MW

80 MW

Grid response

< 200 ms

< 200 ms

Battery storage facility / elevation

SCALE 1:400 — ILLUSTRATIVE

§ 09 — Company

Building infrastructure for the next energy system.

Regional generation site / operating

FIG. 005

NOVA GRID designs, builds and operates energy infrastructure for organisations that can no longer treat power as a background utility.

We work across generation, storage and control software — and we stay with the system long after it is switched on, because a grid asset is only as good as the decade of decisions that follow commissioning.

01

2021

Founded

02

40+

Projects

03

12

Markets

04

80+

Team

§ 10 — Insights

Notes from the grid.

01

Storage

6 min

Why storage is becoming infrastructure

Energy systems are changing.

02

Markets

9 min

The economics of grid flexibility

Understanding demand and supply.

03

Systems

7 min

Designing resilient energy networks

From generation to intelligent distribution.

§ 11 — Contact

Build the next system.

Build the next system.

Tell us about your site, energy demand or infrastructure challenge.

General

General

hello@novagrid.systems

Projects

Projects

systems@novagrid.systems

Studio

Studio

Copenhagen · 55.6761° N

THE GRID IS CHANGING.

NOVA GRID / CLEAN ENERGY SYSTEMS

END OF DOCUMENT

Create a free website with Framer, the website builder loved by startups, designers and agencies.