SOLAR MOUNTING SYSTEMS

SOLAR MOUNTING SYSTEMS

PEG EW System

PEG® EW System Overview:

PEG® EW System Overview

The PEG® provides a unique simplified high-density ground mount solution that produces 225% more land yield versus trackers and fixed tilt systems. The low profile 8-degree tilt design requires minimal spacing between modules creating an ocean of solar panels.

The PEG® is very mobile, light weight, simple to install with only hand tools, no DC trenching, no foundations, no concrete and requires minimal land giving you flexibility of choosing where to install. The PEG® provides a more sustainable solution for solar at a significantly reduced CAPEX.

  • Extremely high land use. Comparison per acre:
    • 3 times higher DC vs trackers, ~ twice higher vs fixed-tilt
    • 225% higher yield vs trackers & other fixed-tilt systems
  • Extremely cost-effective CAPEX (supply and installations)
  • Low profile & shallow foundations, <1m (3.3ft) above & below ground
  • Very light system, ~9 kg (~20lb) per kWp (540W modules)
  • Proven globally, over 420MWp installed
  • Patented design

THE PEG® EW SYSTEM, THE MODULES COVERING ~95-98% OF THE DC AREA WITH NARROW GAPS BETWEEN THE BLOCKS

PEG EW System Overview

solar panels on industrial building
solar panels on industrial building

DESIGN CHARACTERISTICS

  • Only 3 items: Steel rod, Ground plate and Top plate
  • Modules at 8 deg E-W tilt, laid on the Top plates under the module’s corners
  • Optional anchor rods for soft soil or need for shallow foundations

PEG EW System parts

 

anchor rods

PEG EW System
DESIGN ROBUSTNESS
  • Wind Tunnel tests successfully completedby IFI in Germany, in 2012 & 2020
  • Max wind speed TBD per country, e.g.ASCII 7-10: ~185mph (~300km/hr) *
  • Max snow load: ~50-60PSF (Pound perSquare Foot) *

* The wind and snow limits are subject tosite-specific calculated loads, determined mainly by the site wind speed, snowload and local code. The PEG® EW design might require additional support, subject to the max loads allowed by the module manufacturer and the mechanicalanalysis of the substructure.

 

Wind Tunnel tests

PEG EW Solar panels

LAND USE

icon land use

Extremely high land use:

  • ~1.9MWp/Hectare
  • (~0.8MWp/Acre)
  • with ~550W modules
icon Flexible system
Flexible system design allowing very high land use, also on sites with irregular shape (e.g. narrow and long or not-rectangle)
icon orientation
The system’s orientation can be alighted to the site boundaries (NOT to the East-West direction) to maximize the land use, with NO impact on the system’s yield, due to the low modules’ tilt
PEG® on a very narrow land
PEG® on a very narrow land, ~10m wide
PEG® block
Non-rectangle PEG® block
PEG® on a very narrow land
PEG® on a very narrow land, ~10m wide

INSTALLATION METHODOLOGY

CONSTRUCTION PRACTICES ARE IRRELEVANT

  • Low quantity of material and labor
  • Without: Concrete, trenching and heavy machines
  • Working height: ~1m (~3.5ft)
  • Lightweight substructure, <3kg (7 lb) per item
From E P Construction
to E P Installation

PEG®: CAPEX COSTS SAVING VS OTHER SYSTEMS

Cost Factor Saving
Material Substructure: ~50-65% less, DC cables: ~20-30% less
Logistics ~50% less due to far lower substructure quantities and weight
Labor ~50% less due to less labour time (hr/MW)
& skilled labour (avg. hr cost)
Construction material
No concrete & sand is required for foundations or DC trenching
Machinery & tools
No heavy machinery is required (e.g. ramming, trenching, concreting). Only small forklift for site logistics and hand tools required.
Site operation ~30-50% less installation time, leading to saving of site operation costs, e.g. management, safety & security labor & equipment, consumables, Etc.
Safety Far simpler installation process, e.g. without working on heights and without heavy substructure items, leading to significant less OHS effort and injury risks
Land DC area ~50-65% smaller a Lower land acquisition / rent costs, lower installation costs, shorter perimeter fence

Worldwide Installations

Maastricht

Maastricht, Netherlands, 12MWp (2020)
Maastricht

Hoensbroek, Netherlands, 2MWp (2020)
Maastricht

Haidt, Germany, 1.7MWp (2012)
Maastricht

Maastricht, Netherlands, 12MWp (2020)
Maastricht

Barcaldine, Australia, 10.8MWp (2017)
Maastricht

Somaliland, 500kWp (2017)
Maastricht

Barcaldine, Australia, 10.8MWp (2017)
Maastricht

Somaliland, 500kWp (2017)
For more details about Jurchen Technology,
you can find information on the website:
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Our team of professionals is always ready to help you with any questions .
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contacts
+357 9998 8730
info@solarkeycyprus.com.cy
Meet us: Arch. Makariou III 1, office M01, 2324, Lakatamia, Nicosia, Cyprus