DECENTRALIZED ENERGY • AI • DIGITAL INFRASTRUCTURE
Energy access built around people, not infrastructure.
TED Evergreen combines decentralized solar hardware, battery storage, artificial intelligence and digital operations to provide reliable electricity to low-income homes, micro-businesses, schools and health facilities.
THE SOLUTION
One energy system. Four problems solved together.
Traditional energy access is often treated as a hardware problem. We see it differently.
The real challenge is combining reliable electricity, affordability, long-term maintenance and the ability to manage thousands of distributed users efficiently.
01
Access
Energy can be deployed close to the user without waiting for conventional grid infrastructure.
02
Affordability
Eligible users can access the system through an Energy-as-a-Service model instead of carrying the full hardware cost upfront.
03
Operations
Digital monitoring connects customer records, consumption, payments and system performance.
04
Lifecycle
Circular recovery, maintenance and component reuse help us think beyond installation day.
TED EVERGREEN SMART ENERGY 900
The energy hardware at the centre of the network.
TED Evergreen is a compact decentralized solar energy system designed to provide both AC and DC electricity for productive and everyday use.
Its role is not limited to supplying power. Each deployed system is designed to become part of a wider digital operating environment where energy use, system condition and customer information can be managed more intelligently.
Solar charging
Renewable energy input
Battery storage
Energy available beyond daylight
AC + DC output
Supports multiple use cases
Embedded intelligence
Connected operating layer
Energy Hardware
Solar + battery + smart electronics
1kVA
Power class
AC + DC
Energy output
Connected
Digital layer
HOW ENERGY MOVES THROUGH THE SYSTEM
From sunlight to useful electricity, with intelligence in the middle.
The original TED Evergreen system flow is simple: solar energy enters the system, energy is stored, the digital layer helps manage the system and electricity is delivered through AC and DC outputs to the people using it.
Solar Input
Solar panels capture sunlight and send renewable energy into the TED Evergreen system.
Generation
Energy Storage
Integrated battery storage keeps energy available when sunlight is low and during night-time use.
Storage
AI + Digital Energy
The digital layer supports subscriptions, consumption visibility, monitoring and maintenance decisions.
Intelligence
AC + DC Output
Electricity is delivered to appliances and productive-use equipment in homes, businesses, schools and clinics.
Useful energy
ENERGY-AS-A-SERVICE
Access the electricity, not the burden of buying the infrastructure.
Conventional solar often asks a low-income customer to buy the panels, battery, inverter and electronics before receiving the benefit of electricity.
Our Energy-as-a-Service model changes that relationship. We retain responsibility for the energy infrastructure while eligible users pay an affordable subscription based around their energy service.
Why traditional solar still leaves a gap →ACCESS MODEL
Assess
Understand the customer's energy demand and use case.
Deploy
Install an appropriately sized TED Evergreen system.
Subscribe
The customer pays for the energy service instead of purchasing all hardware upfront.
Monitor
System performance, customer records and operations connect into the digital platform.
Maintain
The asset remains part of an operating network rather than becoming an unsupported installation.
THE INTELLIGENCE LAYER
Thousands of small systems need one operating brain.
Decentralized energy solves the distance problem, but it creates an operational challenge. Systems and customers are spread across many locations.
AI and digital infrastructure help us turn distributed hardware into a manageable energy network.
Explore Energy Intelligence→Customer assessment
Structured information helps us understand demand, affordability and system suitability.
Consumption visibility
Energy-use information helps reveal changing customer needs and system utilisation.
Fault intelligence
Connected systems can make it easier to identify abnormal behaviour and systems requiring attention.
Maintenance prioritisation
Field teams can focus intervention where system information indicates it is most needed.
Digital subscriptions
Customer accounts and payments can move through a connected operating workflow.
Network visibility
Distributed assets can be viewed as one energy network rather than thousands of isolated installations.
Network Live
Distributed energy visibility
ONE OPERATING VIEW
Physical systems spread across communities. Digitally connected.
The Energy Intelligence environment is designed to give our team visibility across distributed customer systems.
Location and deployment records
System serial number and customer profile
Online and offline status visibility
Battery and system information
Maintenance and field intervention support
CIRCULAR BY DESIGN
Energy access should not create another waste problem.
We recover usable components from discarded solar equipment, test and process recoverable battery cells and integrate suitable materials into energy systems where they meet our engineering and safety requirements.
01
Collect
Discarded solar and battery components enter the recovery process.
02
Inspect
Components are separated and checked for recoverable value.
03
Test
Battery cells and electronics are assessed before reuse.
04
Integrate
Suitable components are incorporated into appropriate energy assemblies.
05
Deploy
The recovered value returns to productive use through energy access.
WHY IT MATTERS
The benefit is not the solar system. It is what reliable energy makes possible.
Lower entry barrier
Customers do not necessarily have to carry the full cost of purchasing energy hardware before receiving electricity.
Productive electricity
AC and DC outputs support everyday household use and productive economic activities.
Reduced generator dependence
Reliable solar energy can reduce the amount of petrol and diesel customers need for everyday electricity.
Long-term support
Monitoring and maintenance are designed as part of the operating model rather than an afterthought.
Adaptable operations
Energy-use information can help providers understand how customer demand changes over time.
Circular value
Recovering usable materials can extend component life and reduce unnecessary waste.
BUILT FOR REAL USE
One platform. Different energy needs.
Electricity needs differ across households, businesses and community facilities. TED Evergreen is designed around the activities people need electricity to perform.
Micro-business
Energy for income
Power for lighting, clippers, fans, charging, refrigeration and other productive equipment.
Low-income home
Energy for everyday life
Lighting, phone charging, entertainment, communication and household comfort without daily generator dependence.
Health facility
Energy for essential services
Reliable electricity for lighting, communications, refrigeration and critical healthcare activities.
ONE CONNECTED MODEL
Hardware is only one layer of TED Evergreen.
01
Hardware
Solar generation, storage and energy output.
02
Access
Energy-as-a-Service reduces the ownership barrier.
03
Intelligence
AI and analytics support better energy decisions.
04
Operations
Digital tools connect systems, customers and field teams.
05
Circularity
Recovery and reuse extend value beyond first-life equipment.
THE NEXT ENERGY NETWORK