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The research is to explore the changes in solar heating buildings under energy-saving structural design. This paper analyzes the changes in solar heating buildings under energy-saving structural design by constructing a numerical simulation method. It mainly studies the effects of the space temperature of the house, different thermal insulation methods, and wall thermal resistance on solar heating buildings. The energy-saving structural design mainly includes expanding the area of exterior windows, increasing heat retainers, adopting energy-saving walls, and improving the building envelope. The results show that after the energy-saving structural design, the indoor temperature of the solar heating building after the renovation has been greatly increased, with an average increase of about 6 °C. Compared with the external insulation and internal insulation modes, the solar heating building under the sandwich insulation mode has the best effect, and the room temperature increases the most. Also, it shows that the east wall, west wall, and north wall of the building are increasing the energy saving per unit area of the wall as the wall thermal resistance increases. The difference is that the increasing range of the north wall has significant advantages over the east wall and the west wall. The energy-saving structural design for solar heating buildings under the numerical simulation method has significantly improved the utilization efficiency of solar energy. It reduces the consumption of traditional fossil resources and improves the quality of the environment. This paper’s research has a positive effect on subsequent research.
PAPER REVISED: 2020-01-24
PAPER ACCEPTED: 2020-01-07
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  1. Al-Waeli A H, et al. Photovoltaic solar thermal (PV/T) collectors past, present and future: A. International Journal of Applied Engineering Research, 11(2016), 22, pp. 10757-10765.
  2. Fokaides P A, et al. Phase change materials (PCMs) integrated into transparent building elements: a review. Materials for renewable and sustainable energy, 4(2015), 2, pp. 6.
  3. Pan J, et al. An internet of things framework for smart energy in buildings: designs, prototype, and experiments. IEEE Internet of Things Journal, 2(2015), 6, pp. 527-537.
  4. Shaofei Wu. Study and evaluation of clustering algorithm for solubility and thermodynamic data of glycerol derivatives, Thermal Science, 23(2019), 5, pp.2867-2875
  5. Madad A, et al. Phase change materials for building applications: a thorough review and new perspectives. Buildings, 8(2018), 5, pp. 63.
  6. Akeiber H, et al. Phase change materials-assisted heat flux reduction: Experiment and numerical analysis. Energies, 9(2016), 1, pp. 30.
  7. Burattini C, et al. Methodological approach to the energy analysis of unconstrained historical buildings. Sustainability, 7(2015), 8, pp. 10428-10444.
  8. AL-Musawi A I A, et al. Numerical study of the effects of nanofluids and phase-change materials in photovoltaic thermal (PVT) systems. Journal of Thermal Analysis and Calorimetry, 137(2019), 2, pp. 623-636.
  9. Yu Z, et al. Numerical study based on one-year monitoring data of groundwater-source heat pumps primarily for heating: a case in Tangshan, China. Environmental Earth Sciences, 75(2016), 14, pp. 1070.
  10. Chaudhari B D, et al. A Review on Evaporative Cooling Technology. International Journal of Research in Advent Technology, 3(2015), 2, pp. 88-96.
  11. Park K S, et al. Application of breathing architectural members to the natural ventilation of a passive solar house. Energies, 9(2016), 3, pp. 214.
  12. Lai C, Hokoi S. Experimental and numerical studies on the thermal performance of ventilated BIPV curtain walls. Indoor and Built Environment, 26(2017), 9, pp. 1243-1256.
  13. Barone G, et al. WLHP systems in commercial buildings: A case study analysis based on a dynamic simulation approach. Am J Eng Appl Sci, 9(2016), 3, pp. 659-668.
  14. Ruan F, et al. Research on energy efficiency design for residential building envelope under the actual energy consuming method in hot summer and cold winter zone. Building Science, 31(2015), 10, pp. 112-116.
  15. Riffat S, et al. Phase change material developments: a review. International Journal of Ambient Energy, 36(2015), 3, pp. 102-115.
  16. Lantitsou K I, Panagiotakis G D. Thermal analysis of residencies based on solar design principles-a case study in Thessaloniki, Greece. Fresenius Environmental Bulletin, 26(2017), 2, pp. 1254-1262.
  17. Zeng L, et al. Numerical study of the influences of geometry orientation on phase change material's melting process. Advances in Mechanical Engineering, 9(2017), 10, pp. 1687814017720084.
  18. Ren G, et al. Investigation of the Energy Performance of a Novel Modular Solar Building Envelope. Energies, 10(2017), 7, pp. 880.
  19. Shaofei Wu, Mingqing Wang, Yuntao Zou. Bidirectional cognitive computing method supported by cloud technology, Cognitive Systems Research, 52(2018), pp. 615-621
  20. Tang Q, et al. Study of energy-saving potential of electronically controlled turbocharger for internal combustion engine exhaust gas energy recovery. Journal of Engineering for Gas Turbines and Power, 138(2016), 11, pp. 112805.
  21. Moon J, et al. Prediction performance of an artificial neural network model for the amount of cooling energy consumption in hotel rooms. Energies, 8(2015), 8, pp. 8226-8243.
  22. Modi P, et al. Design and development of a mini scale hot box for thermal efficiency evaluation of an insulation building block prototype used in Bahrain. Advances in Building Energy Research, 11(2017), 1, pp. 130-151.

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