A solar power system, comprising, a solar concentrator having a lens disposed therein, the solar concentrator having a first cone-shape and a bottom, the solar concentrator having a length that is longer than a width (w) at the lens of the solar concentrator, a solid tapering device disposed at the bottom, the tapering device having a second cone-shape, a fiber-optic cable having a periscope section including a curved loop segment divided into a first curved glass loop section and a second curved glass loop section, the tapering device having a truncated bottom surface connected to the first curved glass loop section of the fiber-optic cable, the fiber-optic cable having a straight section that is connected to a storage unit, the first curved loop section having a first lower end surface, the second curved loop section having a second upper end surface and a second lower end surface, the straight section having a third upper end surface, the first lower end surface of the first curved loop section and the second upper end surface of the second curved glass loop section having a first gap defined therebetween, the second lower end surface of the second curved glass loop section and the third upper end surface of the straight glass section having a second gap defined therebetween, the solar concentrator being adapted to receive solar power as rays and conveying and concentrating rays as light towards a focus line or segment at the tapering device, the tapering device being in communication with an upper end of the first curved glass loop section, the first curved glass loop section conveying the light to the second curved glass loop section via and across the first gap, the second curved glass loop section conveying the light to the straight section via and across the second gap, while transmitting light, rotating the first curved glass loop section relative to the second curved glass loop section at the first gap; and rotating the second curved glass loop section relative to the straight section at the second gap so that the solar concentrator follows a path of a sun, the rotation at the second gap enabling the concentrator to accompany the sun's azimuth during the day i.e. to follow the sun as the sun moves during the day, the rotation at the first gap enabling the concentrator to accompany elevational changes of the sun during the day, the fiber-optic cable and the straight section carrying the conveyed light energy collected in the concentrator to the inside of the storage unit. a solar concentrator having a lens disposed therein, the solar concentrator having a first cone-shape and a bottom, the solar concentrator having a length that is longer than a width (w) at the lens of the solar concentrator, a solid tapering device disposed at the bottom, the tapering device having a second cone-shape, a fiber-optic cable having a periscope section including a curved loop segment divided into a first curved glass loop section and a second curved glass loop section, the tapering device having a truncated bottom surface connected to the first curved glass loop section of the fiber-optic cable, the fiber-optic cable having a straight section that is connected to a storage unit, the first curved loop section having a first lower end surface, the second curved loop section having a second upper end surface and a second lower end surface, the straight section having a third upper end surface, the first lower end surface of the first curved loop section and the second upper end surface of the second curved glass loop section having a first gap defined therebetween, the second lower end surface of the second curved glass loop section and the third upper end surface of the straight glass section having a second gap defined therebetween, the solar concentrator being adapted to receive solar power as rays and conveying and concentrating rays as light towards a focus line or segment at the tapering device, the tapering device being in communication with an upper end of the first curved glass loop section, the first curved glass loop section conveying the light to the second curved glass loop section via and across the first gap, the second curved glass loop section conveying the light to the straight section via and across the second gap, while transmitting light, rotating the first curved glass loop section relative to the second curved glass loop section at the first gap; and rotating the second curved glass loop section relative to the straight section at the second gap so that the solar concentrator follows a path of a sun, the rotation at the second gap enabling the concentrator to accompany the sun's azimuth during the day i.e. to follow the sun as the sun moves during the day, the rotation at the first gap enabling the concentrator to accompany elevational changes of the sun during the day, the fiber-optic cable and the straight section carrying the conveyed light energy collected in the concentrator to the inside of the storage unit.