Scenarios

Scenario-based system solutions

Residential, commercial and industrial, utility-scale and charging hub configurations — with the conditions each one suits.

Home

Residential solar and storage

A pitched-roof PV array, a hybrid inverter, a stackable battery and a wallbox, sized from the household load profile rather than from a fixed package.

Suitable conditions

  • South, east or west roof planes with limited shading
  • Single-phase or three-phase supply with space for a wall-mounted battery
  • Night-time consumption or EV charging worth shifting to daytime generation

What it delivers

  • Daytime generation stored for evening and morning peaks
  • Essential circuits stay powered during short grid interruptions
  • Wallbox added on the same monitoring app without a second vendor
Get this scenario plan

Homeowners, residential installers and solar distributors

Residential rooftop with solar panels and a home battery

System composition

  1. 01

    Generate

    All-black modules on the pitched roof

    TF-B60 modules chosen for uniform appearance, with string layout set from the roof geometry.

  2. 02

    Convert

    Hybrid inverter as the system hub

    TF-H5 combines PV conversion, battery charging and backup output in one wall-mounted unit.

  3. 03

    Store

    Stackable battery in the utility area

    TF-R20 stack from 5 kWh upward, sized to evening consumption and backup circuits.

  4. 04

    Charge

    Wallbox on the same energy bus

    TF-A22 with dynamic load balancing, scheduled to absorb surplus generation.

C&I

Commercial and industrial

Rooftop or carport generation on string inverters, with an outdoor storage cabinet, controlled around demand charges and production schedules.

Suitable conditions

  • Roof or carport area able to carry a meaningful share of daytime load
  • Demand charges or time-of-use tariffs with a clear peak window
  • Space for an outdoor cabinet with maintenance access

What it delivers

  • Peak demand clipped by battery discharge rather than by process changes
  • PV self-consumption raised by storing surplus instead of exporting
  • One EMS view across generation, storage and charging loads
Get this scenario plan

Factory owners, facility managers, commercial EPC contractors

Factory rooftop solar installation with storage containers

System composition

  1. 01

    Generate

    Rooftop or carport array

    TF-M10 or TF-T72 modules with string design based on load timing and roof load limits.

  2. 02

    Convert

    String inverters on the roof

    TF-C30 units with four MPPT trackers follow the roof geometry and feed the site distribution board.

  3. 03

    Store

    Outdoor cabinet with liquid cooling

    TF-C100 sized to the peak window, with fire detection and a maintenance aisle.

  4. 04

    Use

    Load and charging control

    Energy management coordinates production load and depot charging within contracted demand.

Utility

Utility-scale PV and storage

Ground-mounted generation with containerised storage, specified for interconnection studies and long-term degradation budgets.

Suitable conditions

  • Land with planning consent and grid connection capacity
  • Interconnection requirements that include ramp or firming obligations
  • Long-term O&M arrangements with regional service coverage

What it delivers

  • Bifacial modules and containerised storage sized in one energy model
  • DC and AC interface data supplied for the interconnection study
  • Documentation package structured for lender and owner review
Get this scenario plan

Project developers, IPPs, utility EPC contractors

Aerial view of a utility-scale solar farm

System composition

  1. 01

    Generate

    Bifacial ground-mounted array

    TF-T72 modules on trackers or fixed tilt, with bifacial gain included in the yield model.

  2. 02

    Store

    Containerised battery blocks

    TF-C500 containers with liquid cooling and multi-level fire protection.

  3. 03

    Deliver

    Grid interface and documentation

    PCS and transformer coordination, plus the certification set requested by the offtaker.

EV hub

Charging hub

A split DC system with satellite dispensers and on-site generation, planned around parking layout and grid capacity.

Suitable conditions

  • Parking layout with room for dispensers away from the power cabinet
  • Grid capacity that limits simultaneous full-power charging
  • Payment and roaming requirements for public access

What it delivers

  • Power cabinet positioned at the supply point, dispensers at the bays
  • Load management keeps the site within contracted capacity
  • Solar canopy and storage can shave the site's peak import
Get this scenario plan

Charge point operators, fleets, retail and transport sites

Public EV charging hub with several charging bays in daylight

System composition

  1. 01

    Supply

    Split power cabinet

    TF-H360 cabinet feeding satellite dispensers through the parking area.

  2. 02

    Control

    Load management per session

    Contractual priority for fleets, with remaining capacity shared across public bays.

  3. 03

    Support

    Canopy PV and buffer storage

    Canopy modules and a storage cabinet reduce peak import and improve resilience.

Inquiry

Tell us what the project needs to deliver

Share the load profile, site conditions and target commissioning date. Our engineers reply with a configuration proposal and the documents you need to compare options.