Ultrasound-irradiated synthesis of 3-mercaptopropyl trimethoxysilane-modified hydroxyapatite derived from fish-scale residues followed by ultrasound-assisted organic dyes removal

Sricharoen, Phitchan; Kongsri, Supalak; Kukusamude, Chunyapuk; Areerob, Yonrapach; Nuengmatcha, Prawit; Chanthai, Saksit; Limchoowong, Nunticha

doi:10.1038/s41598-021-85206-5

Cited by 16 publications

(8 citation statements)

References 39 publications

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“…This is in line with the findings of Khoo et al [65], who analyzed the production and extraction of HAp in a calcination process at 700 • C and concluded that these parameters are optimal for the extraction of HAp, allowing for the organic content to be removed and a highly crystalline structure to be formed [65]. Many studies have demonstrated the effectiveness of the synthesis of HAp from marine waste such as scales, bones, shells, and skins [66,67]. These studies applied ultrasound technologies to obtain a highly adsorbent HAp enriched with another chemical compound (3-mercaptopropyl trimethoxysilanes) [66].…”

Section: Hydroxyapatite (Hap)supporting

confidence: 84%

Thermochemical Conversion of Animal-Derived Waste: A Mini-Review with a Focus on Chicken Bone Waste

Macavei,

Gheorghe,

Ionescu

et al. 2024

Processes

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Food waste, particularly animal-derived waste, presents a significant challenge globally, prompting the need for sustainable management strategies. In 2022, the amount of food waste per capita reached 131 kg/capita in the EU (European Union), which is why the search for environmentally friendly ways to manage food waste through thermochemical conversion processes has gained momentum in recent years. Animal-derived waste is a good source of organic matter (proteins, lipids, and polysaccharides) and mineral compounds (calcium phosphate, mostly hydroxyapatite). This composition makes animal-derived waste valuable for the extraction of chemical compounds, such as hydroxyapatite (HAp), which constitutes up to 70 wt% of animal bones; keratin; collagen; and hyaluronic acid (HA), to produce pharmaceutical, medical, or industrial by-products. The thermochemical conversion of chicken bones through pyrolysis and gasification creates a new opportunity to valorize this type of waste by reintroducing valuable by-products into the economy and thus achieving sustainable waste management objectives. The results of this study showcase the multiple applications of the pyrolysis of chicken bone waste products (as adsorbents in aqueous mediums, catalysts, fertilizers, and biomedical applications) and the necessity of a better exploration of the gasification process of chicken bone waste. Therefore, this study explores the properties of animal-derived waste and discusses the pyrolysis and gasification of chicken bone waste, the influence of process conditions on product yields, and the catalytic enhancement of these thermochemical processes.

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Section: Hydroxyapatite (Hap)supporting

confidence: 84%

Thermochemical Conversion of Animal-Derived Waste: A Mini-Review with a Focus on Chicken Bone Waste

Macavei,

Gheorghe,

Ionescu

et al. 2024

Processes

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show abstract

“…(2019) revealed the presence of a large amount of hydroxyl group in HAp derived from fish contributing to a significant increase of the active adsorbing sites for the heavy metals like lead, arsenic, copper, cadmium, and mercury with adsorption capability of 162.4 mg/g for copper and 128.7 mg/g for cadmium. Sricharoen et al . (2021) also reported a high adsorption capability of HAp derived from fish of up to 227.2 mg/g.…”

Section: Discussionmentioning

confidence: 99%

Nile Tilapia Bones as Eco-Friendly Alternative in Water Treatment and Enhancing Performance and Immunity in Broiler Chickens

Soliman¹,

Hassan²,

Farid³

2022

Open Vet J

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Background: Water pollution has become a major threat to the environment and the living so an eco-friendly bio-filter was chosen for its merits over conventional techniques. Aim: Investigating the purifying activities of the Tilapia bone powder against inorganics, heavy metals, and microbial water pollutants and its impacts on performance, biochemical and antioxidant levels, cortisol and immunoglobulin concentrations, and intestinal microbiota in challenged broiler chickens. Methods: The in-vitro activity of Tilapia bone powder was evaluated against magnesium chloride and lead nitrate using tube minimal inhibitory concentration (MIC), as well as against E. coli O1527:H7, Salmonella Typhimurium, Mycoplasma gallisepticum, Aspergillus niger, Trichophyton mentagrophytes, and Candida albicans using a 96-micro-well MIC. A total of 250 one-day-old Hubbard chicks were divided into five groups on a deep litter system. Chicks were supplemented daily with Tilapia bone powder (1 g/L) for 4-6 h from the 3rd day. Challenges were served on the 7th, 14th, 21st, 28th, and 35th days for four broiler groups using magnesium chloride (100 mg/L), lead nitrate (350 mg/L), E. coli (2.4 × 1012 CFU/ml), S. Typhimurium (1.8 × 108 CFU/ml) respectively, and the 5th group was assigned as a control. A total of 2250 samples (90 Tilapia-pollutants mixes, 480 Tilapia-microbial mixes, 240 sera, 240 intestinal swabs, and 1200 tissue samples) were collected. Results: Tilapia bones powder 1% reveals a 100% reduction in the lead after 1-h, total and calcium hardness after 0.5 h, as well as 100% killing efficacy against E. coli O1527:H7, S. Typhimurium, M. gallisepticum, A. niger, T. mentagrophytes, and C. albicans after 0.5, 1, 1, 1, 1, and 1-h respectively. Tilapia bones powder 1% treated water reveals highly significant (p < 0.01) increases in dissolved oxygen and declines in physicochemical and microbial parameters compared with tap water. Challenged treated broilers revealed highly significant (p < 0.01) increases in weight gains, performance index, body weights, carcasses and organs weights, immunoglobulin concentrations, and antioxidant levels, as well as highly significant (p < 0.01) improvements in feed conversions, feed and water intakes, biochemical profile, cortisol hormone, and intestinal microbiota. Conclusion: Tilapia bone powder provided significant in-vitro adsorptive and antimicrobial actions, as well as supported the broiler chickens to mitigate the polluted water stress accompanied by enhanced performance, carcass quality, immunity, and intestinal microbiota.

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“…The pristine PU sponge was immersed in the GO aqueous solution and then dried at high temperature to obtain a GO-coated sponge (GO-PU). To address the hydrophilicity of the GO-PU [36], silanization modification with DTMS was conducted to introduce low-energy materials on the surface of the GO-PU [37,38]. Then DTMS-GO-PU was treated by a thermal curing reduction process at a high temperature in an argon-hydrogen atmosphere to obtain a superhydrophobic and superlipophilic DTMS-rGO-PU sponge.…”

Section: Determination Of Optimal Preparation Conditions Of Dtms-rgo-...mentioning

confidence: 99%

Superhydrophobic DTMS/rGO-nanocomposites modified polyurethane sponge for efficient oil–water separation

Zhang

et al. 2023

Surface Engineering

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Dodecyltrimethoxysilane (DTMS)-modified reduced graphene oxide (rGO) nanocomposites were incorporated into polyurethane (PU) sponges by a combination of dip-coating and thermal curing reduction reaction to obtain a novel superhydrophobic DTMS-rGO-PU sponge for effective oil/water separation. The reaction conditions, such as the dip-coating solution concentration, the thermal curing reduction temperature, and the reaction time were demonstrated to be key factors in forming hierarchical DTMS-rGO nanocomposites, which significantly affected the surface wettability of the PU sponge. The resulting DTMS-rGO-PU sponge with a static water contact angle (WCA) of 152.2°displayed superior superhydrophobicity, and achieved an oil-water separation efficiency of 99.89% for various oil/water mixtures. This superhydrophobic sponge also showed minimal deterioration in its high oil adsorption capacity after 100 recycled adsorption operations. Furthermore, the asprepared DTMS-rGO-PU sponge was proven to be physically and chemically stable and durable in harsh environmental conditions, suggesting its potential for industrial applications in oil spillage management.

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Ultrasound-irradiated synthesis of 3-mercaptopropyl trimethoxysilane-modified hydroxyapatite derived from fish-scale residues followed by ultrasound-assisted organic dyes removal

Cited by 16 publications

References 39 publications

Thermochemical Conversion of Animal-Derived Waste: A Mini-Review with a Focus on Chicken Bone Waste

Thermochemical Conversion of Animal-Derived Waste: A Mini-Review with a Focus on Chicken Bone Waste

Nile Tilapia Bones as Eco-Friendly Alternative in Water Treatment and Enhancing Performance and Immunity in Broiler Chickens

Superhydrophobic DTMS/rGO-nanocomposites modified polyurethane sponge for efficient oil–water separation

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