Concrete containing waste recycled glass, plastic and rubber as sand replacement

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Compressive Strength of Palm Oil Lightweight Aggregate Concrete Containing Industrial Waste as Partial Sand Replacement

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Experimental Study on Rubberized Concrete using Zeolite and Geopolymer

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Use of Glass Waste in Concrete: An AustralianUpdate

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Different ways of mechanical wave propagation damping in Ackerman ceilings using recycled rubber

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Test of compressive strength of rubber ceramsite concrete modified by basalt fiber

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Review of Rubber-Based Waste in Compressed Bricks

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The Impact of Transportation and Emissions Allocation on the Global Warming Potential of Concretes Containing Alternative Binders and Fillers

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Effect of Particle Size and Replacement Ratio on Mechanical Performance of Concrete Containing Ground Recycled Acrylonitrile Butadiene Styrene (Grabs) Waste PlasticsPreprint

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Valorization of plastic waste aggregate in concrete: A study on durability and microstructural properties.

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Thermal Performance of Polymer-Modified Concrete for Sustainable Building Envelopes

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Concrete with incorporation of polymeric recycled aggregate

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Waste glass powder on the properties of treated granular rubber modified concrete

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Synergistic interaction between ceramic waste powder and PET waste for enhanced durability performance of cement mortars

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PLASTIC BEYOND WASTE: REPURPOSING A PETROCHEMICAL BY PRODUCT IN THE AGE OF CLIMATE CRISIS

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Evaluation of the Use of Coarse Recycled Rubber in Granular Subbase as a Sustainable Alternative for Pavements: Colombia Case Study

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Feasibility Study on the Use of Compost as Fine Aggregate in Lightweight Concrete

Pandiaraj, K., Vanitha, S., & Palaniappan, M. (2026) · Compost Science & Utilization · doi:10.1080/1065657x.2026.2656149

Structure performance of concrete with hybrid rubber and basalt aggregates under static and impact loads

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Fabrication of transparent superhydrophobic glass via periodic array holes processing combined with PDMS filling and imprinting

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Feasibility of using stabilized grouting wastes as a road foundation material

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Combined effects of carbon nanotubes and recycled polypropylene fibers on ultra-high-performance concrete incorporating calcium aluminate cement and waste glass fine aggregate

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Experimental investigation of concrete prepared with waste rubber and waste glass

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