The innovations way outperform the current industry standard. Shingle Matrix Technology enables us to tread new paths in ground-breaking modules of the future. The arrangement of cells in a matrix with improved shading resilience sets a completely new benchmark for maximum efficiency and unprecedented potential for module design.
Conventional cell connection is replaced by the full-surface cover of cell strips which, similar to shingles, are laid with a small overlap and laterally with an offset to each other, similar to a masonry structure. The technology offers flexibility and new potential for module design. It opens up new areas of application for BIPV (Building Integrated PV), VIPV (Vehicle Integrated PV), AgriPV (Agriculture PV) and so forth.
Conventional cell connection is replaced by the full-surface cover of cell strips which, similar to shingles, are laid with a small overlap and laterally with an offset to each other, similar to a masonry structure. The technology offers flexibility and new potential for module design. It opens up new areas of application for BIPV (Building Integrated PV), VIPV (Vehicle Integrated PV), AgriPV (Agriculture PV) and so forth.
Having no conventional wiring on the busbars fully dispenses with solder and flux, which significantly reduces the cost of cell connection.
Having no conventional wiring on the busbars fully dispenses with solder and flux, which significantly reduces the cost of cell connection.
Shingle matrix module technology enables the most economical and environmentally friendly manufacturing process in the market. ECA (Electric Conductive Adhesive) ensures that cell connection is 100% lead free.
Shingle matrix module technology enables the most economical and environmentally friendly manufacturing process in the market. ECA (Electric Conductive Adhesive) ensures that cell connection is 100% lead free.
The shingle matrix configuration of cell segments combines serial and parallel connection. Optimizing the current flow in an environment with partial shading reduces losses to a local minimum, allowing all other module groups to work efficiently unhindered. Modules with Shingle Matrix Technology deliver the greatest shading resilience in a global comparison.
The shingle matrix configuration of cell segments combines serial and parallel connection. Optimizing the current flow in an environment with partial shading reduces losses to a local minimum, allowing all other module groups to work efficiently unhindered. Modules with Shingle Matrix Technology deliver the greatest shading resilience in a global comparison.
The matrix connection significantly reduces resistance, which lowers losses within modules and ultimately raises efficiency.
The matrix connection significantly reduces resistance, which lowers losses within modules and ultimately raises efficiency.
As today’s façades are partly or even fully shaded by other buildings or objects such as chimney stacks, antennas, trees or even pollution, e.g. airborne pollen, the yield from conventional solar panels is compromised. Consequently, the majority of solar panels have so far been rooftop mounted.
As today’s façades are partly or even fully shaded by other buildings or objects such as chimney stacks, antennas, trees or even pollution, e.g. airborne pollen, the yield from conventional solar panels is compromised. Consequently, the majority of solar panels have so far been rooftop mounted.
• Partial shading stops the meandering current flow!
• Considerable yield loss
• The current flows from above, bypassing any hindrances in a downward direction
• Minimal yield loss
