Synthesis, characterization, and performance characteristics of alkyd resins based on Ricinodendron heudelotii oil and their blending with epoxy resins

Assanvo, Edja F.; Gogoi, P. K.; Dolui, Swapan Kumar; Baruah, Sanjib

doi:10.1016/j.indcrop.2014.11.049

Cited by 70 publications

(57 citation statements)

References 23 publications

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“…Ricinodendron heudelotii oil is a siccative oil, it can be used as a re newable raw material for the formulation of surface coating systems, paints and adhesives, as demonstrated by the work of Assanvo et al (Assanvo et al, 2015). α eleostearic acid, β eleostearic acid and cat alpic acid from this oil are polymerizable fatty acids.…”

Section: • Corresponding Authormentioning

confidence: 99%

Effect of dehulling method on the chemical composition of the lipid constituents of the kernels and oils of Ricinodendron heudelotii seeds

Nikiema

Mouloungui

Koua

et al. 2019

Industrial Crops and Products

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Section: • Corresponding Authormentioning

confidence: 99%

Effect of dehulling method on the chemical composition of the lipid constituents of the kernels and oils of Ricinodendron heudelotii seeds

Nikiema

Mouloungui

Koua

et al. 2019

Industrial Crops and Products

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“…Aliphatic C-H Stretching [23] 2835-2815 CH 3 -O-CH 3 (ethers) Stretching [21] 1740-1732 C=O (ester) Stretching [23] 1651-1640 C=C (aromatic) Skeletal [24] 1652-1579 C-C (ring) Stretching [21] 1486-1446 C-H-(CH 3 )/(CH 2 ) Symmetric Asymmetric [24] 1461-1377 C-H-(CH 3 ) Symmetric [24] 1290-1211 C-O Stretching [21] 1230-1140 C-O (phenol) Stretching [21] 1239-1100 C-O-C (ester) Stretching [22,23] 1090-1049 C-O Stretching [21] 1043-1006 C-O Stretching [24] 970-960 C=C-H Bending [21] 730-710 C-H-(CH 2 ) Bending [21] 3.2. Bio-Oil Solubility and Emulsion Stability at B/E Ratio = 1…”

Section: -2858mentioning

confidence: 99%

Simultaneous Extraction and Emulsification of Food Waste Liquefaction Bio-Oil

et al. 2018

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Biomass-derived bio-oil is a sustainable and renewable energy resource, and liquefaction is a potential conversion way to produce bio-oil. Emulsification is a physical upgrading technology, which blends immiscible liquids into a homogeneous emulsion through the addition of an emulsifier. Liquefaction bio-oil from food waste is characterized by its high pour point when compared to diesel fuel. In order to partially replace diesel fuel by liquefaction bio-oil, this study aimed to develop a method to simultaneously extract and emulsify the bio-oil using a commercial surfactant (Atlox 4914, CRODA, Snaith, UK). The solubility and stability of the emulsions at various operating conditions such as the bio-oil-to-emulsifier ratio (B/E ratio), storage temperature and duration, and co-surfactant (methanol) addition were analyzed. The results demonstrate that higher amounts of bio-oil (7 g) and emulsifier (7 g) at a B/E ratio = 1 in an emulsion have a higher solubility (66.48 wt %). When the B/E ratio was decreased from 1 to 0.556, the bio-oil solubility was enhanced by 45.79%, even though the storage duration was up to 7 days. Compared to the emulsion stored at room temperature (25 °C), its storage at 100 °C presented a higher solubility, especially at higher B/E ratios. Moreover, when methanol was added as a co-surfactant during emulsification at higher B/E ratios (0.714 to 1), it rendered better solubility (58.83–70.96 wt %). Overall, the emulsified oil showed greater stability after the extraction-emulsification process.

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“…Lu et al 47 57 Yellow oleander, 58 Karanja, 59 Ricinodendron heudelotti 60 to synthesize alkyd resin. On characterization, the cured epoxy-blended resins were found to have properties suitable for coating application.…”

Section: Other Oilsmentioning

confidence: 99%

A Review on Biodegradable Polymeric Materials Derived from Vegetable Oils for Diverse Applications

2016

IJSR

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Non-biodegradable polymers are causing severe damage to the environment. To counter this, need of biodegradable polymers is gaining a rapid growth in numbers as well in their applications and quantities used. In addition, due to the oil crises worldwide, focuses from synthesizing polymers from petroleum has shifted to the synthesis of polymers from renewable resources such as vegetable oils. The advantage of vegetable oils is they are easily available, have multiple functional groups attached like the double bonds, hydroxyl groups and other functional groups, which provides ease of reactions and modification like epoxidation etc. The use of vegetable oils in the polymer renders biodegradability to the polymer. Different researchers have used different vegetables oils like castor oil, linseed oil, soybean oil, sunflower oil and canola oils for synthesis of polymers and utilized them in diverse fields like biomedical, coatings, adhesives, IPN's and as structural materials. This review discusses the synthesis, characterization, degradation and applications of polymers obtained from natural oils such as castor oil, soybean oil, linseed oil and some other oils.

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Synthesis, characterization, and performance characteristics of alkyd resins based on Ricinodendron heudelotii oil and their blending with epoxy resins

Cited by 70 publications

References 23 publications

Effect of dehulling method on the chemical composition of the lipid constituents of the kernels and oils of Ricinodendron heudelotii seeds

Effect of dehulling method on the chemical composition of the lipid constituents of the kernels and oils of Ricinodendron heudelotii seeds

Simultaneous Extraction and Emulsification of Food Waste Liquefaction Bio-Oil

A Review on Biodegradable Polymeric Materials Derived from Vegetable Oils for Diverse Applications

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