GIS-SLD Sandbox

Dimensions & Physics

Array Hierarchy (String)

Module Logistics

Baseline Project Economics
Year 1 Revenue Projection£0
25 Year Revenue Projection£0
35 Year Revenue Projection£0
Total CAPEX£0
CAPEX per Wp£0.00/Wp
Indicative 25 Year Surplus£0
Indicative 35 Year Surplus£0

Revenue

CAPEX

Loss Allowances

BESS Optional

Dimensions & Physics

Array Hierarchy (Central)

Module Logistics

Baseline Project Economics
Year 1 Revenue Projection£0
25 Year Revenue Projection£0
35 Year Revenue Projection£0
Total CAPEX£0
CAPEX per Wp£0.00/Wp
Indicative 25 Year Surplus£0
Indicative 35 Year Surplus£0

Revenue

CAPEX

Loss Allowances

BESS Optional

Selected Grid Node

Substation:None selected
Voltage:Unknown
Longitude:n/a
Latitude:n/a

Technical Quantity Summary

Total Module Count:0
Total DC Capacity:0.00 MWp
Implied AC Capacity:0.00 MWac
DC/AC Ratio:1.20
Net Module Surface Area:0 Acres
Net Array Area at GCR:0 Acres
Indicative Gross Site Area:0 Acres
Modules per Packing Unit:0
Total Packing Units:0
Modules per Container:0
Total Base Containers:0
Spare Module Allowance:0%
Containers (Inc. Spares):0
Containers per MWp:0.00

Custom Reference Benchmark

Implied Benchmark:~ 1,500 modules/MW
ENGINEERING SCREENING OUTPUT

These outputs are indicative screening values only. They are not construction design, financial advice, EPC pricing, grid compliance, logistics planning or transport instruction. All quantities, packaging, site area, cable routes, container loads, module specifications and financial assumptions must be verified against current manufacturer datasheets, project specific drawings, EPC scope, grid requirements and competent engineering review.

About the VENTUS GIS SLD Sandbox

VENTUS GIS SLD Sandbox is a working engineering screening tool for utility scale solar, storage and grid connection analysis.

The tool helps users explore the relationship between land, grid proximity, solar topology, module count, inverter architecture, logistics, BESS assumptions and baseline project economics in one visual interface.

Users can enter a location, view UK substation reference data, select a grid node and generate an indicative solar layout using either string inverter or central inverter topology. The tool can estimate module count, DC capacity, AC capacity, site area, packing units, container loads, baseline revenue, CAPEX assumptions and simple long term financial outputs.

This is a real engineering screening tool. It is not a final construction design package, grid offer, connection approval, EPC quotation or financial advice. It is designed to support early stage project assessment by making technical, spatial, logistics and financial assumptions visible before deeper engineering, grid, planning, procurement and financial studies begin.

A key feature of the sandbox is that technical and commercial assumptions are shown together. In real projects, module count becomes logistics. Cable routing becomes electrical loss. Grid proximity becomes interface risk. BESS assumptions affect land, CAPEX and revenue logic. Financial outputs only become useful when the physical assumptions behind them are visible.

The tool also includes GeoJSON export so that generated layouts and assumptions can be carried into external GIS workflows, reports, internal review or further engineering discussion. The exported data is intended to preserve context, including topology mode, technical assumptions, logistics assumptions, financial assumptions and warnings.

The public substation layer is reference data only. A visible substation point does not confirm available capacity, connection rights, voltage suitability, cable route, grid acceptance or point of connection approval. Any real project must still be reviewed by competent engineers, grid specialists, planners, EPC teams, legal advisers and project finance professionals before real world decisions are made.

VENTUS created this sandbox to support better early stage thinking in solar and storage deployment. The aim is to help developers, engineers, suppliers, investors and commercial teams ask better questions before committing time, capital and contractual responsibility.

Use the sandbox as a thinking tool. Use it to test scale. Use it to compare assumptions. Use it to understand where deeper engineering begins.