The results showed a noticeable increase in incident solar irradiance on the receiver when the receiver was tilted with respect to the horizontal plane. The study did not take into account the effects of receiver tilt or the effects of wind speed on useful energy. Furthermore, the analysed \(SSLFR\) only generated thermal energy. The effect of mirror rows and/or receiver tilt on the performance of \(SSLFRs\) was analysed in [23]. The study was conducted in five cities in the Northern Hemisphere. The receiver tilt angle was varied from 0 (\({}^{\circ}\)) to the latitude of the location analysed in 10% intervals. The results also showed a noticeable increase in the energy received by the receiver. This was especially true for those locations where the beam component of the solar irradiance was high. However, the effects of receiver tilt on thermal losses and wind speed were not analysed. The \(SSLFR\) studied only the thermal energy generated. Ref. [24] theoretically demonstrated the optimum receiver tilt angle for the maximum energy received by the receiver. It concluded that the optimum tilt angle is the one that coincides with the location latitude. The study was implemented in five cities in the Northern Hemisphere. The study did not consider thermal losses due to wind speed. The \(SSLFR\) only considered the thermal energy generated. An analysis of the effects of wind (speed and direction) on the heat losses from a receiver at a tilt angle to the horizontal plane of an \(SSLFR\) using a \(3D\) computational fluid dynamics model was presented in [25]. The \(SSLFR\) was used to obtain thermal energy. In accordance with the studies analysed, the following conclusions were drawn:(i) Only a few studies in the literature consider the inclination of the receiver. Studies that take this geometrical design into account discuss obtaining thermal energy. (ii) There are very few studies in the literature that take into account the inclination of the receiver and the thermal losses due to the action of the wind. These systems are used to generate thermal energy. In addition, they usually use a \(3D\) computational fluid dynamics model. (iii) The studies analysed used the \(SSLFR\) to generate thermal energy only. The contributions of this paper can be summarised in the following points:  
(i) The tested \(SSLFR\) is used in an \(LCPV\) system. To our knowledge, there is no study similar to the one proposed in this paper. (ii) An experimental platform was designed and built for the development of the tests, allowing the receiver to be tilted. (iii) The multiple tests carried out took into account five wind speed conditions and seven different conditions: six Northern Hemisphere cities and the classical configuration of large-scale \(LFRs\). Four evaluation indicators were used, including useful heat gain, thermal efficiency, solar irradiance gain incident on the \(PV\) cells, and total useful energy gain. (iv) An analysis was performed of electrical efficiency as a function of thermal power and ambient temperature. (v) A comparison was made between a nonconcentration \(PV\) system and a low-concentration \(PV\) system. This paper is organised as follows. Section 2 introduces the basic construction aspects of a low-concentration PV system based on a small-scale linear Fresnel reflector. Section 3 presents the experimental platform, the prototype, the electrical subsystem, the thermal subsystem, the measuring instruments, the experimental procedure, and the evaluation indicators. Section 4 sets forth the experimental results for different tilt angles and different wind speeds. Finally, the conclusions are given in Section 5.