| Authors | Construction Product or System | Results |
|---|---|---|
| [22] | Wood and plastic composite with microencapsulated phase change of PCM | Energy saving and improvement of energy efficiency |
| [23] [24] | Natural bamboo: Pressed boards | Improvement of sustainability including case studies |
| [25] [26] [27] | Laminated/composite bamboo panels | Sufficient resistance with minimum thickness |
| [28] | Compound based on gypsum and wood aggregates from demolitions of rehabilitation works | Improvement of thermal properties of the compound. Reduction of mechanical resistance |
| [29] [30] | Plaster with mica or vermiculite aggregates. Plaster reinforced with CDW from mineral wool fibres | Improvement of energy efficiency |
| [31] | Structural concrete and pavement blocks with glass waste | The addition of glass waste improves the product life cycle, durability and structural behaviour |
| [32] | Hydraulic mortars using recycled plastic | Improvement of fire behaviour and sustainability |
| [33] | Panels with plasterboard waste and recycled concrete | Minimization of the environmental impact of façades construction. Same mechanical benefits as those made of natural resources |
| [34] | Cold bituminous mixtures with CDW aggregates | Reduction of resistance and natural resources consumption |
| [35] | Structural concrete with recycled aggregates | Reduction of resistance and natural resources consumption |
| [36] | Blocks of recycled plastics (including EPS) and cement | Resistance reduction. Improvement of energy efficiency |
| [37] [38] [39] [40] | Bricks with recycled aggregates from brick dust and clay tiles | Lower weight and cost. Accomplishment of environmental values of the origin country. Significant decrease of compressive resistance and increase of water absorption degree |
| [41] | Concretes with CDW and cement | Reduction of natural resources consumption |
| [42] | Plaster or plaster boards with recycled EPS | Improvement of energy efficiency |
| [43] [44] | Cobblestones with crushed ceramic materials | The water absorption degree is higher than the one for similar products on the market |
| [45] | Panels made of ashes from thermal power plants and cement | Minimization of the environmental impact in façades. Same mechanical benefits as those made of natural resources |
| [46] [47] | Plaster reinforced with glass fibres | Reduction of resource consumption. Improvement of durability |
| [48] | Gypsum with lightweight cork aggregates | Improvement of energy efficiency |
| [49] | Non-structural concrete blocks incorporating EVA waste | Improvement of energy efficiency |
| [50] | Composites with cork as raw material | Improvement of energy efficiency |
| [51] | Structural concrete and blocks with cork aggregates | Reduction of thermal conductivity |
| [52] [53] | Reinforced plaster with aggregates of crushed tires | Improvement of energy efficiency. Resistance reduction |
| [54] [55] | Plaster with aggregates of crushed rice husk residues | Reduction of resource consumption. Resistance reduction |
| [56] | Bricks using marginal soil instead of cooked clay | Improvement of sustainability |
| [57] [58] | Bricks of compact soil | Increase of water absorption degree compared to traditional pieces |
| [59] [60] | Photocatalytic mortars | Reduction of environmental impact |
| [61] | Lightweight multilayer composite walls | High level of thermal performance and interior comfort |
| [62] | Development of “trombe” wall system | Improvement of energy efficiency |