PHOTOVOLTAIC MODULE
FIG7 is a plan view of part of the photovoltaic module according to the invention
The grooves un along the entirety of the covering layers 202. Thus, if the grooves were present on all four the sides of the cells, each groove would cross other grooves at the four edges which each cell forms by means of its edge. The reflective elements may also adopt the shape of their penetration, that is, occupying the entire inner space. An example is shown in FIG7. In this drawing it can be seen how it is possible to make all the reflective elements 101 to be placed in the grooves of a covering layer 202 with a single grille-shaped element, or make, equally, a reflective element of length equal to the length of the groove in which the reflective element will be housed. The reflective element can cross the others in a fitting 211 as shown in FIG7, forming a single reflective element which extends along the entire length of the groove regardless of the number of crossings to be made with other reflective elements, forming a chequerboard surface comprising square sections 210.
plan view
201
cells cell
211
fitting
202
covering layer covering layers
203
gap layer
210
surface comprising square sections
213
but have bevelled corners
400
flat mirror
204
busbar
104
bottom wall
300
glue
102
sequence
101
reflective elements reflective element
401
area
200
photovoltaic module
['1. A photovoltaic module (200) comprising at least one photovoltaic cell (201), at least one electrical interconnecting connection (206, 204) and at least one solar deflector (100) the solar deflector (100) comprising a groove for containing at least the one electrical interconnecting connection (206, 204) or the photovoltaic cell (201), the groove having a main direction of extension and comprising at least bilateral containment means of the electrical interconnecting connection (206, 204) or the photovoltaic cell (201) along a direction transversal to the main direction of extension.']