A Decade Review of Research Trends Using Waste Materials in the Building and Construction Industry: A Pathway towards a Circular Economy
Abstract
:1. Introduction
2. Research Significance and Methodologies
3. Bibliometric Assessment Findings
Summary of Bibliometric Assessment
- Rubber was the least researched waste material.
- Mechanical testing of compressive, tensile, and flexural is a key research focus.
- Fly Ash and slags are the dominant additives in concrete materials.
- Sustainability is a key driver of waste material research.
- Glass, steel, and plastics are heavy research focused.
- Gypsum, ceramics, and wood had similar trends of research focus.
4. Waste Materials
4.1. Rubber Waste
4.1.1. Sustainability Aspects of Using Rubber Waste
4.1.2. Applications and Viability of Using Waste Rubber
4.2. Textile Waste
4.2.1. Sustainability Aspects of Using Textile Waste
4.2.2. Applications and Viability of Using Textile Waste
4.3. Ceramic Waste
4.3.1. Sustainability Aspects of Using Ceramic Waste
4.3.2. Applications and Viability of Using Ceramic Waste
5. Conclusions, Limitations, and Future Research
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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Description | Results |
---|---|
Timespan | 2013:2024 |
Sources (Journals, Books, etc.) | 1482 |
Documents | 6238 |
Document Average Age | 3.75 |
Average citations per doc | 14.68 |
References | 1 |
Authors | 17,022 |
Authors of single-authored docs | 384 |
Single-authored docs | 561 |
Co-Authors per Doc | 3.93 |
Document types | |
Article | 3775 |
Book | 20 |
Book chapter | 273 |
Conference paper | 1738 |
Review | 432 |
Material Type | Material Application | Main Study Focus | Ref. |
---|---|---|---|
Tire rubber and steel fibres | Geopolymer concrete | Mechanical, microstructure, environmental and economical | [51] |
Rubber fibres | Cement | Mechanical and microstructure | [52] |
Crumb rubber | Geopolymer concrete | Mechanical and microstructure | [53] |
Rubber | Concrete | Optimisation, economic, environmental, and mechanical | [54] |
Crumb rubber | Geopolymer concrete | Mechanical | [55] |
Crumb rubber | Concrete | Mechanical | [56] |
Tire rubber | High strength concrete | Mechanical and microstructure | [57] |
Rubber granules | Concrete | Mechanical | [58] |
Tire rubber | Asphalt | Economic and environmental | [59] |
Tire rubber | Concrete | Mechanical, environmental, and economical | [60] |
Tire rubber and Fly Ash | Composite | Mechanical and microstructure | [61] |
Tire rubber and waste glass | Concrete | Mechanical and microstructure | [62] |
Tire rubber | Composite | Mechanical and microstructure | [63] |
Tire rubber | Syntactic foam | Mechanical and microstructure | [64] |
Tire rubber, steel fibre and porcelain | Concrete | Mechanical and microstructure | [65] |
Rubber tube and cow dung ash | Concrete | Mechanical and microstructure | [66] |
Tire rubber | Clay soil-rubber | Mechanical and microstructure | [67] |
Tire rubber and recycled aggregate | Pavement | Mechanical and microstructure | [68] |
Rubber fibre and recycled aggregate | Concrete | Machine learning modelling | [69] |
Tire rubber | Composite | Mechanical and microstructure | [70] |
Tire rubber and agricultural waste | Composite | Mechanical | [71] |
Tire rubber powder | Asphalt | Mechanical and microstructure | [47] |
Polyvinyl alcohol and rubber | Cement paste | Mechanical | [72] |
Tire rubber | Pavement | Mechanical and microstructure | [73] |
Tire rubber and fly ash | Composite | Mechanical and microstructure | [74] |
Tire rubber | Cement mortar | Mechanical and microstructure | [75] |
Tire rubber | Self-compacting concrete | Mechanical and microstructure | [76] |
Crumb rubber and quarry dust | Concrete | Mechanical | [77] |
Tire rubber and plastic waste | Concrete blocks | Mechanical, economical, and environmental | [78] |
Crumb rubber and recycled aggregates | Mortar | Mechanical and microstructure | [79] |
Rubber particles | Self-compacting concrete | Mechanical and microstructure | [80] |
Rubber tire, waste paint and silica | Cement paste | Microstructure | [81] |
Tire rubber | Asphalt | Mechanical and microstructure | [82] |
Tire rubber and recycled concrete | Concrete | Mechanical and microstructure | [83] |
Rubber powder and polypropylene fibre | Concrete | Mechanical and microstructure | [84] |
Tire rubber | Concrete blocks | Mechanical | [85] |
Tire rubber | Asphalt | Mechanical | [86] |
Rubber powder granules | Asphalt | Thermal | [87] |
Tire rubber | Composite | Mechanical and microstructure | [88] |
Tire rubber | Pervious concrete | Mechanical and simulation | [89] |
Tire rubber | Composite | Mechanical and microstructure | [90] |
Tire rubber | Concrete | Mechanical and environmental | [91] |
Material Type | Material Application | Main Study Focus | Ref. |
---|---|---|---|
Jute yarn, flax yarn | Reinforced polyester bars | Mechanical, | [115] |
Multifilament carbon yarns | Fabric cement-based composite | Mechanical, microstructure | [116] |
Carbon fibre yarn | Geopolymer concrete composites | Mechanical, thermal | [117] |
Textile yarn | Alkali resistant glass textile reinforced concrete | Mechanical, physical | [118] |
Poly-acrylonitrile based carbon fibre yarn | Concrete | Mechanical, microstructure, thermal | [119] |
Textile carbon mesh yarn | Textile reinforced concrete | Mechanical, physical | [120] |
Glass fibre yarn | Reinforced cementitious composite | Mechanical | [121] |
Textile carbon fibre yarn | Fibre reinforced cementitious matrices | Mechanical, microstructure, | [122] |
Glass fibre yarn | Composite reinforced mortar | Mechanical | [123] |
Basalt, AR-glass, carbon fibre and PP filament yarn | Textile reinforced concrete | Mechanical | [124] |
Textile carbon yarns | Reinforced concrete beams | Mechanical | [125] |
Carbon multifilament yarn | Cement based composites | Mechanical, microstructure | [126] |
Textile carbon multifilament yarn | Fibre reinforced concrete | Mechanical, microstructure | [127] |
AR-glass multifilament yarn | Cement based composites | Mechanical, microstructure | [128] |
AR-glass and basalt yarn | Cement based composites | Mechanical, | [129] |
Glass and polyester fibre | Polymer concrete | Mechanical, durability | [130] |
Polyester fibres | Concrete | Mechanical, physical | [131] |
Polyester fibres | Asphalt concrete | Mechanical, durability | [132] |
Polypropylene and polyester fibre | Asphalt | Physical | [133] |
Waste denim jeans | Concrete | Mechanical, thermal, microstructure | [109] |
Glass fibre reinforced polyester | Concrete | Mechanical | [134] |
Polyester fibres | Concrete | Mechanical | [135] |
Steel and polyester fibres | Concrete | Mechanical | [136] |
Polypropylene and polyester fibres | Concrete | Mechanical, microstructure, thermal | [108] |
Polyester and polyurethane | Concrete | Mechanical | [137] |
Polyester waste fibres | Asphalt | Mechanical | [138] |
Rayon textile fibre | Polyhydroxy butyrate nanocomposites | Mechanical and microstructure | [139] |
Bamboo, cotton, and rayon fibre | Composites | Mechanical | [140] |
Rayon based carbon fibres | Fibre investigations | Microstructure | [141] |
Polypropylene, PET, and rayon fibres | Hybrid composites | Mechanical | [142] |
Rayon fabric and glass epoxy | Polymeric composites | Mechanical | [143] |
Sheep wool | Insulation | Thermal, acoustic | [144] |
Sheep wool | Concrete composites | Mechanical, acoustic | [145] |
Flax wool twine | Mortar composites | Mechanical, microstructure, durability | [146] |
Sheep wool | Concrete composites | Mechanical, microstructure, | [147] |
Sheep wool | Fibre reinforced concrete | Mechanical | [148] |
Sheep wool | Mechanical insulation | Thermal | [149] |
Sheep wool | Hybrid bio-composites | Thermal, acoustic | [150] |
Sheep wool | Insulation | Thermal, acoustic, microstructure | [151] |
Sheep wool, shell pinecone and paper | Thermal insulation | Mechanical, thermal, microstructure, absorptivity | [152] |
Sheep wool | Thermal insulation | Mechanical, thermal, microstructure | [153] |
Sheep wool | Reinforced concrete | Mechanical, thermal, | [154] |
Wool | Mortar | Mechanical, microstructure | [155] |
Hemp wool | External wall panels | Thermal, economic | [156] |
Material Type | Material Application | Main Study Focus | Ref. |
---|---|---|---|
Ceramic sanitary waste | Geopolymer concrete | Mechanical and microstructure | [178] |
Fired clay ceramics | High performance concrete | Mechanical and microstructure | [179] |
Ceramic tiles | Geopolymer concrete | Optimisation, mechanical and microstructure | [180] |
Ceramic roof tiles | Geopolymer concrete | Mechanical | [181] |
Ceramic waste | Concrete | Machine learning and mechanical | [182] |
Ceramic waste and nylon fibre | Concrete | Machine learning and mechanical | [183] |
Ceramic foams | Electrical insulating material | Microstructure | [184] |
Ceramic powder | Concrete beams | Mechanical | [185] |
Tiles with waste glass particles | Roof applications | Mechanical and microstructure | [186] |
Ceramic powder | Concrete | Optimisation, mechanical and environmental | [187] |
Ceramic powder | Concrete | Optimisation and mechanical | [188] |
Ceramic electrical insulator | Concrete | Mechanical | [189] |
Ceramic bricks | Soil stabilization | Mechanical and microstructure | [190] |
Ceramic mould shells | Mortar | Mechanical and microstructure | [191] |
Tile waste | Concrete | Mechanical | [192] |
Tile waste | Concrete aggregates | Mechanical | [193] |
Ceramic waste powder and sisal fibre | Concrete | Mechanical | [194] |
Ceramic and slag wastes | Sandwich panels | Environmental | [195] |
Ceramic waste | Mortar | Microstructure | [196] |
Tile powder | Concrete | Mechanical | [197] |
Ceramic waste powder | Concrete | Mechanical | [198] |
Tiles | Self-compacting concrete | Mechanical and microstructure | [199] |
Tiles | Self-compacting concrete | Mechanical, durability and microstructure | [200] |
Ceramic waste powder | Cement | Mechanical | [201] |
Ceramic waste and polypropylene fibres | Self-compacting concrete | Mechanical, durability and microstructure | [202] |
Tiles | Mortar | Mechanical and microstructure | [203] |
Tiles | Self-compacting concrete | Mechanical, durability and microstructure | [204] |
Ceramic waste | Geopolymer concrete | Mechanical | [205] |
Ceramic waste and glass powder silica fume | Concrete | Mechanical | [206] |
Ceramic waste, brick powder, marble powder, glass powder and rice husk ash | Composite | Mechanical and microstructure | [207] |
Ceramic waste | Geopolymer concrete | Mechanical and microstructure | [208] |
Ceramic mould casting waste | Lightweight concrete | Mechanical and microstructure | [209] |
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Haigh, R. A Decade Review of Research Trends Using Waste Materials in the Building and Construction Industry: A Pathway towards a Circular Economy. Waste 2023, 1, 935-959. https://doi.org/10.3390/waste1040054
Haigh R. A Decade Review of Research Trends Using Waste Materials in the Building and Construction Industry: A Pathway towards a Circular Economy. Waste. 2023; 1(4):935-959. https://doi.org/10.3390/waste1040054
Chicago/Turabian StyleHaigh, Robert. 2023. "A Decade Review of Research Trends Using Waste Materials in the Building and Construction Industry: A Pathway towards a Circular Economy" Waste 1, no. 4: 935-959. https://doi.org/10.3390/waste1040054