The article presents the possibility of increasing the water resistance of gypsum binders (GBs) obtained based on synthetic gypsum by introducing additives derived from industrial wastes. Regularities were obtained for the influence of the type and amount of additives on the water/gypsum ratio (W/G), strength indicators and water resistance of high-strength GB. The introduction of a single-component additive to improve water resistance does not have a significant effect. Complex additives based on Portland cement, granulated blast-furnace slag, electric steel-smelting slag, expanded clay dust and granite screenings of various fractions have been developed that make the maximum contribution to improving the water resistance of a high-strength GB based on synthetic calcium sulphate dihydrate, which made it possible to increase the water-resistance coefficient from 0.39 to 0.82.
AbdulwahidMYAkinwandeAAKamarouM, et al. (2023) The production of environmentally friendly building materials out of recycling walnut shell waste: A brief review. Biomass Conversion and Biorefinery1–10.
2.
AdematiAOAkinwandeAABalogunOA, et al. (2022) Optimization of bamboo fiber–reinforced composite-clay bricks for development of low-cost farm settlements toward boosting rural agribusiness in Africa. Journal of Materials in Civil Engineering34: 04022335.
3.
AdrianoDCPageALElseewiAA, et al. (1980) Utilization and disposal of fly ash and other coal residues in terrestrial ecosystems: A review. Journal of Environmental Quality9: 333–344.
4.
AkinwandeAABalogunOARomanovskiV, et al. (2022a) Recycling of synthetic waste wig fiber in the production of cement-adobe for building envelope: Physio-hydric properties. Environmental Science and Pollution Research29: 34075–34091.
5.
AkinwandeAABalogunOARomanovskiV, et al. (2022b) Mechanical performance and Taguchi optimization of kenaf fiber/cement-paperboard composite for interior application. Environmental Science and Pollution Research29: 52675–52688.
6.
AkinwandeAABalogunOARomanovskiV (2022c) Modeling, multi-response optimization, and performance reliability of green metal composites produced from municipal wastes. Environmental Science and Pollution Research29: 61027–61048.
7.
AkinwandeAABalogunOADansoH, et al. (2023b) Development of insulating masonry bricks from wood fiber and varying milled glass proportion. Journal of Civil Engineering and Construction12: 40–54.
8.
AkinwandeAAFolorunsoDOBalogunOA, et al. (2023a) Paperbricks produced from wastes: Modeling and optimization of compressive strength by response surface approach. Environmental Science and Pollution Research30: 8080–8097.
9.
BakhshEMKhanSBAkhtarK, et al. (2022) Simultaneous preparation of humic acid and mesoporous silica from municipal sludge and their adsorption properties for U(VI). Colloids and Surfaces A: Physicochemical and Engineering Aspects647: 129060.
10.
CarlsonCLAdrianoDC (1993) Environmental impacts of coal combustion residues. Journal of Environmental Quality22: 227–247.
11.
ChernyshevaNVLesovikVSDrebezgovaMY, et al. (2018, March). Composite gypsum binders with silica-containing additives. In IOP Conference Series: Materials Science and Engineering. IOP Publishing, vol. 327, p. 032015.
12.
ÇolakA (2002) The long-term durability performance of gypsum–portland cement–natural pozzolan blends. Cement and Concrete Research32: 109–115.
13.
CombeDCSmithEC (1968) Studies on the preparation of calcium sulphate hemihydrate by an atuoclave process. Journal of Applied Chemistry10: 307–312.
14.
DermatasDMengX (2003) Utilization of fly ash for stabilization/solidification of heavy metal contaminated soils. Engineering Geology70: 377–394.
15.
DomanskayaIBednyaginSFisherHB (2018) Water-resistant gypsum binding agents and concretes based thereof as promising materials for building green. In IOP Conference Series: Earth and Environmental Science. IOP Publishing, vol. 177, p. 012029.
16.
KamarouMKorobNHilA, et al. (2021b) Low-energy technology for producing anhydrite in the CaCO3 – H2SO4 – H2O system derived from industrial wastes. Journal of Chemical Technology and Biotechnology96: 2065–2071.
17.
KamarouMKorobNKwapinskiW, et al. (2021c) High-quality gypsum binders based on synthetic calcium sulfate dihydrate produced from industrial wastes. Journal of Industrial and Engineering Chemistry100: 324–332.
18.
KamarouMKorobNRomanovskiV (2021a) Structurally controlled synthesis of synthetic gypsum derived from industrial wastes: Sustainable approach. Journal of Chemical Technology and Biotechnology96: 3134–3141.
19.
KamarouMKuzmenkovMKorobN, et al. (2020) Structurally controlled synthesis of calcium sulphate dihydrate from industrial wastes of spent sulphuric acid and limestone. Environmental Technology & Innovation17: 100582.
20.
KamarouMMoskovskikhDChanHL, et al. (2022). Low energy synthesis of anhydrite cement from waste lime mud. Journal of Chemical Technology & Biotechnology98: 789–796.
21.
LesovikVChernyshevaNVDrebezgovaMY (2019) Properties of composite gypsum binders depending on multicomponent mineral additives. In Materials Science Forum. Trans Tech Publications Ltd, vol. 945, pp. 238–243.
22.
Magallanes-RiveraRXJuarez-AlvaradoCAValdezP, et al. (2012) Modified gypsum compounds: An ecological–economical choise to improve traditional plasters. Construction and Building Materials37: 591–596.
23.
MatsukevichIKulinichNRomanovskiV (2022) Direct reduced iron and zinc recovery from electric arc furnace dust. Journal of Chemical Technology and Biotechnology97: 3091–3099.
24.
MukhametrakhimovRGalautdinovAGorbunovaP, et al. (2019) Water-resistant fiber-reinforced gypsum cement-pozzolanic composites. In E3S Web of Conferences. EDP Sciences, vol. 138, p. 01011.
25.
NellesMGruenesJMorscheckG (2016) Waste management in Germany–development to a sustainable circular economy?Procedia Environmental Sciences35: 6–14.
26.
OgunsanyaOAkinwandeABalogunOA, et al. (2022) Mechanical and damping behavior of artificially aged Al 6061/TiO2 reinforced composites for aerospace applications. Particulate Science and Technology41: 196–208.
27.
PanchenkoAKharchenkoI (2020, June). Water-resistant gypsum expanded-clay concrete technology. In IOP Conference Series: Materials Science and Engineering. IOP Publishing, vol. 869, p. 032010.
28.
PanchenkoAIKozlovN (2016) Water-resistant gypsum binder. In MATEC Web of Conferences. EDP Sciences, vol. 86, p. 06001.
29.
PervyshinGNYakovlevGIGordinaAF, et al. (2017) Water-resistant gypsum compositions with man-made modifiers. Procedia Engineering172: 867–874.
30.
PiresAMartinhoG (2019) Waste hierarchy index for circular economy in waste management. Waste Management95: 298–305.
31.
PotapovaEDmitrievaE (2019) The effect of metakaolin on the processes of hydration and hardening of cement. Materials Today: Proceedings19: 2193–2196.
32.
PotapovaENIsaevaIV (2012) Improving water resistance of gypsum binder. Stroitel’nye Materialy7: 20–22.
33.
PotapovaENyeinAKTsvetkovaE, et al. (2020) Modification of the structure of gypsum-cement-pozzolanic binder. In MATEC Web of Conferences. EDP Sciences, vol. 329, p. 04007.
34.
RomanovskiVKlyndyukAKamarouM (2021b) Green approach for low-energy direct synthesis of anhydrite from industrial wastes of lime mud and spent sulfuric acid. Journal of Environmental Chemical Engineering9: 106711.
35.
RomanovskiiVIMartsul’VN (2009) Distribution of heteroatoms of synthetic ion exchangers in pyrolysis products. Russian Journal of Applied Chemistry82: 836–839.
36.
RomanovskiiVIMartsul’VN (2012) Functional group distribution over the surface and in the bulk of particles of spent ion exchangers in the course of mechanochemical destruction. Russian Journal of Applied Chemistry85: 371–376.
37.
RomanovskiVRomanovskaiaEMoskovskikhD, et al. (2021a) Recycling of iron-rich sediment for surface modification of filters for underground water deironing. Journal of Environmental Chemical Engineering9: 105712.
38.
RomanovskiVSuXZhangL, et al. (2023) Approaches for filtrate utilization from synthetic gypsum production. Environmental Science and Pollution Research30: 33243–33252.
39.
RomanovskiVZhangLSuX, et al. (2022) Gypsum and high quality binders derived from water treatment sediments and spent sulfuric acid: Chemical engineering and environmental aspects. Chemical Engineering Research and Design184: 224–232.
40.
ShaterMAMosalamyFHEl-SheikhR, et al. (1983) Mechanism of the hydration of tricalcium aluminate and gypsum of 1:3 mole ratio at low water/solid ratio and in suspension. Thermochimica Acta69: 379–388.
41.
SmorokovAKantaevABryankinD, et al. (2022) Low-temperature desiliconization of activated zircon concentrate by NH4HF2 solution. Minerals Engineering189: 107909.
42.
SmorokovAKantaevABryankinD, et al. (2023a) Low-temperature method for desiliconization of polymetallic slags by ammonium bifluoride solution. Environmental Science and Pollution Research30: 30271–30280.
43.
SmorokovAKantaevABryankinD, et al. (2023b). A novel low-energy approach of leucoxene concentrate desiliconization by ammonium bifluoride solutions. Journal of Chemical Technology & Biotechnology98: 726–733.
44.
StahelWR (2016) The circular economy. Nature News531: 435–438.
45.
TesárekPHájkováAPlachýT (2011) Effect of a W/G on mechanical properties of gypsum. In Proceedings of 17th International Conference Engineering Mechanics, Svratka, Czech Republic, 9–12 May 2011.
46.
van EwijkSStegemannJA (2020) Recognising waste use potential to achieve a circular economy. Waste Management105: 1–7.
47.
VolzhenskyAVFerronskayaAVKreimerYE, et al. (1969) Experience of using products based on gypsum-cement-pozzolanic binders in livestock buildings of Kirghiz SSR. Construction Materials10: 26–27.
48.
WansomSChintasongkroPSrijampanW (2019) Water resistant blended cements containing flue-gas desulfurization gypsum, Portland cement and fly ash for structural applications. Cement and Concrete Composites103: 134–148.
49.
ZalyhinaVCheprasovaVBelyaevaV, et al. (2021a) Pigments from spent Zn, Ni, Cu, and Cd electrolytes from electroplating industry. Environmental Science and Pollution Research28: 32660–32668.
50.
ZalyhinaVCheprasovaVRomanovskiV (2021b) Pigments from spent chloride-ammonium zinc plating electrolytes. Journal of Chemical Technology and Biotechnology96: 2767–2774.
51.
ZalyhinaVCheprasovaVRomanovskiV (2022) Paper industry slag for the production of building ceramics. Journal of Chemical Technology and Biotechnology97: 3091–3099.
52.
ZalyhinaVCheprasovaVRomanovskiV (2023) Recycling of fine fraction of spent foundry sands into fireclay bricks. Journal of Material Cycles and Waste Management26: 322–330.
53.
ZhouHZhangDJiangY, et al. (2023) Recovery of carbon from spent carbon cathode by alkaline and acid leaching and thermal treatment and exploration of its application in lithium-ion batteries. Environmental Science and Pollution Research30: 114327–114335.
54.
ZhouZZhangLYanB, et al. (2024) Removal of chromium from electroplating sludge by roasting-acid leaching and catalytic degradation of antibiotics by its residue. Journal of Environmental Chemical Engineering12: 111754.
