NOVELTY - Manufacturing solar cell module involves: forming front protective member (20) including hardened first silicone resin (31) on first surface of front substrate (50); disposing several solar cells (10) on front protective member; forming back protective member (40) including hardened second silicone resin (41) and fiber material (43) on several solar cells; and disposing back substrate (60) on fiber material.    USE - For manufacturing solar cell module (claimed).    ADVANTAGE - In the method for manufacturing solar cell module transmittances of first and second silicone resins constituting front and back protective members are greater than transmittance of existing protective member formed of ethylene vinyl acetate (EVA) or polyvinyl butyral (PVB) at short wavelength e.g. UV band. Thus, decoloration of first and second silicone resins resulting from exposure to UV light can be prevented, and amount of light incident on solar cells increases. As a result, output of solar cell module can be improved. Because first silicone resin can be manufactured to be thinner than EVA used in existing protective layer, thickness of solar cell module can be reduced. Further, adhesive strengths between silicone resin and front and back substrates are more excellent than adhesive strength between silicone resin and solar cells. As adhesive strengths between silicone resin and substrates are excellent, the method prevents penetration of moisture, oxygen, and impurities more efficiently than existing protective member for long time. Thus, reliability of solar cell module can be improved. Because at least portion of each solar cell is buried in first silicone resin, location of solar cells may be fixed by first silicone resin. Thus, misarrangement of solar cells can be prevented in subsequent module processing. Because interface between first silicone resin and second silicone resin is uneven surface, light incident through front substrate may be diffusely reflected from interface. Hence, amount of light incident on solar cells increases and output of solar cell module is improved. Because fiber material is positioned between back substrate and solar cells, strength of solar cell module increases and crack of solar cell module is prevented by fiber material. Further, because twisting of solar cells is prevented in laminating, leveling of back substrate is excellently implemented. Further, second silicone resin is filled in space between fibers of fiber material having mesh form. Alternatively, when at least a portion of fiber material is separated from back substrate, second silicone resin is filled in space between fiber material and back substrate. Thus, components of solar cell module may be easily attached to one another. Further, fiber material can be positioned closer to back substrate than solar cells. The reflection effect when fiber material is positioned closer to back substrate than solar cells is more excellent than reflection effect when fiber material is positioned closer to solar cells than back substrate. Thus, efficiency of solar cell module can be improved. Further, when second silicone resin is manufactured to be thicker than first silicone resin, weatherproof property of solar cell module can be improved. Also, as first and second silicone resins are hardened at lower temperature than existing protective member, module processing can be performed at lower temperature and curing time can be reduced.    DETAILED DESCRIPTION - Manufacturing solar cell module involves: forming front protective member (20) including hardened first silicone resin (31) on first surface of front substrate (50); disposing several solar cells (10) on front protective member; forming back protective member (40) including hardened second silicone resin (41) and fiber material (43) on several solar cells; and disposing back substrate (60) on fiber material. The forming of front protective member involves coating liquid first silicone resin on first surface of front substrate and hardening coated liquid first silicone resin. The liquid first silicone resin is coated on first surface of front substrate to thickness of 0.3-0.5 mm, and is left for 30-60 seconds to level. The hardening of coated liquid first silicone resin involves disposing front substrate, on which liquid first silicone resin is coated, in oven and curing coated liquid first silicone resin at ( greater than or equal to 80, preferably 90-110) degrees C. When curing processing is performed, coated liquid first silicone resin is attached to first surface of front substrate, and surface of cured first silicone resin that is opposite to surface of cured first silicone resin that is attached to first surface of substrate has uneven surface. The forming of back protective member involves coating liquid second silicone resin on several solar cells, disposing fiber material on coated liquid second silicone resin, and hardening coated liquid second silicone resin, where hardening of coated liquid second silicone resin is performed after disposing of back substrate on fiber material. The liquid second silicone resin is coated on several solar cells to thickness of 0.3-0.5 mm, and is left for 30-60 seconds to level liquid second silicone resin. When leveling process is performed, liquid second silicone resin is filled in space between adjacent solar cells and space between solar cells and front protective member. When fiber material and back substrate are disposed on coated liquid second silicone resin, coated liquid second silicone resin is filled in space between individual fibers of fiber material, and in space between individual fibers that contacts back substrate. The hardening of coated liquid second silicone resin involves disposing front substrate, on which fiber material and back substrate are disposed, in oven and curing coated liquid second silicone resin at ( greater than or equal to 80, preferably 90-110) degrees C. When curing processing is performed, coated liquid second silicone resin is attached to first protective member, several solar cells, and back substrate.    DESCRIPTION OF DRAWING(S) - The figure shows conceptual diagram illustrating schematic configuration of the solar cell module.    Solar cells (10)    Interconnectors (20)    Front protective member (30)    First silicone resin (31)    Back protective member (40)    Second silicone resin (41)    Fiber material (43)    Front substrate (50)    Back substrate (60)