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Animal fats

Camel Hump Fat

Also: Camel hump oil, Camel fat, Rendered camel hump fat, Dromedary hump fat.

Calculate a 100 % Camel Hump Fat bar

Published values

Saponification value197.75 mg KOH/g
Used by the calculator197.8 mg KOH/g (typical)
SAP for NaOH0.1410 g/g
Iodine value—
INS (SAP − IV)—
Melting point—
Unsaponifiable matter—

A bar made of 100 % Camel Hump Fat

Hardness 57 above 29–54
Cleansing 6 below 12–22
Conditioning 30 below 44–69
Bubbly lather 6 below 14–46
Creamy lather 51 above 16–48

Conventional qualities summed from the fatty-acid groups; a single-oil bar is a reference point, not a recipe.

Fatty-acid profile

Fatty acidPublished range, %Used
Capric acid C10:0 · saturated 0.01 0.0
Lauric acid C12:0 · saturated 0.42 0.4
Myristic acid C14:0 · saturated 5.47 5.5
Palmitic acid C16:0 · saturated 36.24 36.2
Palmitoleic acid C16:1 3.97 4.0
Stearic acid C18:0 · saturated 15.11 15.1
Oleic acid C18:1 28.46 28.5
Linoleic acid C18:2 1.54 1.5
α-Linolenic acid C18:3 n-3 0.23 0.2
γ-Linolenic acid C18:3 n-6 0.04 0.0
Arachidic acid C20:0 · saturated 0.3 0.3
Behenic acid C22:0 · saturated 0.04 0.0
Erucic acid C22:1 0.04 0.0

Where these numbers come from

Frontiers Media - Frontiers in Nutrition (open access via PubMed Central) — Effects of camel hump fat, palm olein oil, and corn oil feed additives on plasma lipids and adipose tissues in rats (Shaheed Mohammed Alshaikhsaleh, Farag Ali Saleh, Mutlag Mohammed Al-Otaibi; Front. Nutr. 2025, 12:1587579; DOI 10.3389/fnut.2025.1587579) · document dated 2025-04 · read 2026-09-24

Table 2 'Fatty acid composition, vitamins, and pigments of different types of fat and oil', column CHF (camel hump fat); Table 3 'Chemical properties of different types of oil and fat' (iodine, acid, saponification and peroxide values); preparation of the hump fat in Materials and Methods. Read through the Europe PMC JATS XML. The iodine value was read and rejected.

MDPI - Animals (open access via PubMed Central) — Comparative Analysis of Morphology and Targeted Fatty Acid Profiling of Adipose Tissues from Different Depots in the Junggar Bactrian Camel (Xiaokang Chang, Yi Su, Manjun Zhai, Jun Meng, Yaqi Zeng, Jianwen Wang, Wanlu Ren, Xinkui Yao; Animals 2026, 16(15):2412; DOI 10.3390/ani16152412) · document dated 2026-08 · read 2026-09-24

Table 2, HAT column; data processing section (relative molar percentages). Cross-check only, not merged.

Unique Scientific Publishers - International Journal of Veterinary Science (open access) — Proximate Chemical Analysis, Fatty Acid Profile and Microstructural Characteristics of Dromedary Camel Fats (Hump, Renal and Mesentery) (Mohamed M. Mashaly, Marwa R. S. Abdallah, Mohamed M. T. Emara, Mohamed K. Elmossalami; Int. J. Vet. Sci. 2020, 9(2):279-284; DOI 10.37422/ijvs/20.014) · document dated 2020 · read 2026-09-24

Table 4 'fatty acid profile of dromedary camel fat from different anatomical locations', Hump column; read with pdftotext -raw. Read and set aside as an outlier; the DOI's registered landing URL returned 404, the PDF is on the journal's own site.

Frontiers Media - Frontiers in Nutrition (open access via PubMed Central) — Camel hump: composition, bioactivities, and multifunctional sustainable applications (Muyassar Yasen, Xierzhati Aihaiti, Sabahat Ablimit, Zheng Ren, Ajiguli Waisiding, Mubarak Iminjan, Yuan Ma; Front. Nutr. 2026, 13:1869754; DOI 10.3389/fnut.2026.1869754) · document dated 2026-06 · read 2026-09-24

Review, used only to find primary sources (Section 2.2.2 and its reference list). Its physicochemical figures come from a master's thesis and are not used.

SOURCE: Alshaikhsaleh, Saleh & Al-Otaibi, Front. Nutr. 12:1587579 (2025). A camel hump bought at a meat market in Al-Ahsa, Saudi Arabia, melted by heating and filtered (the paper does not name the species or the animal's age; it is one rendered sample, not a population). Table 2 fatty acids (%, GC by AOAC 996.01; no SD printed): C10:0 0.01, C12:0 0.42, C13:0 0.07, C14:0 5.47, C14:1 0.11 (printed as 'C14:0 (myristoleic)'; the formula C14H26O2 shows it is C14:1), C15:0 1.58, C16:0 36.24, C16:1 3.97, C17:0 1.42, C17:1 0.76, C18:0 15.11, C18:1n9t (elaidic) 2.64, C18:1n9c (oleic) 28.46, C18:2n6t 0.02, C18:2n6c 1.54, C20:0 0.30, C18:3n6 0.04, C20:1n9 (cis-11-eicosenoic) 0.47, C18:3n3 0.23, C21:0 0.93, C20:2 0.02, C22:0 0.04, C20:3n6 0.03, C22:1n9 (erucic) 0.04, C20:3n3 0.02, C23:0 0.04, C24:1n9 0.02; C4:0, C6:0, C8:0, C11:0, C15:1, C20:4n6, C22:2, C24:0 and C20:5n3 not detected; SFA 61.58, UFA 38.34, MUFA 33.80, PUFA 1.88, trans 2.66. Table 3 (mean +/- SD of n = 3 replicate analyses): saponification value 197.75 +/- 0.42 mg KOH/g, acid value 0.41 +/- 0.00 mg KOH/g, peroxide value 0.25 +/- 0.00 mEq/kg, iodine value 70.23 +/- 6.00 g I/100 g. MAPPED: capric, lauric, myristic, palmitic, palmitoleic, stearic, oleic (C18:1n9c only), linoleic (C18:2n6c only), alpha-linolenic (C18:3n3), gamma-linolenic (C18:3n6), arachidic, behenic, erucic (C22:1n9) - 91.87 % in all. NOT MAPPED, 8.13 %: C13:0 0.07, C14:1 0.11, C15:0 1.58, C17:0 1.42, C17:1 0.76, elaidic acid 2.64 (trans C18:1, deliberately not folded into oleic: same molar mass, so it makes no difference to lye, but a different acid), trans C18:2 0.02, gondoic acid 0.47 (the paper labels its only C20:1 peak 'C20:1n9 (cis-11-eicosenoic)'; the gadoleic key is the cis-9, n-11 isomer), C21:0 0.93, C20:2 0.02, C20:3n6 0.03, C20:3n3 0.02, C23:0 0.04, C24:1 0.02. The published saponification value agrees with the profile: 197.75 against 199.5-200.0 estimated from it (3*56106/(3*M+38.05), M the mass-weighted mean fatty-acid molar mass; -1 %). IODINE VALUE NOT RECORDED: the 70.23 printed is about twice what this composition allows (about 35 - 28.46 % oleic, 3.97 % palmitoleic, 2.64 % elaidic and under 2 % polyunsaturates cannot take up 70 g of iodine per 100 g), and in the same table the lab's palm olein reads 76.93 against about 56 implied by its own Table 2 profile, so the method runs high; rejected as arithmetically impossible, as COVERAGE.md did with a watermelon-seed iodine value. CROSS-CHECKS, NOT MERGED: Chang et al., Animals 16(15):2412 (2026), Table 2, hump adipose tissue (HAT) of 13 adult (5-6 years) male Junggar Bactrian camels (Camelus bactrianus; Junggar Basin, Xinjiang; grazing plus a corn-soybean concentrate and alfalfa hay), GC-MS on DB-23: C14:0 8.30, C15:0 1.03, C16:0 23.23, C17:0 1.38, C18:0 20.24, C16:1n-7 4.22, elaidic 0.55, C18:1n-9 28.49, C18:2n-6 2.87, C18:3n-3 1.54; SFA 55.10, MUFA 34.60, PUFA 5.15. These are relative MOLAR percentages (the paper says so), not the weight percentages this schema holds, and only 10 of the 40 acids measured are printed, so they are not merged; they do show a two-humped camel's hump fat running lower in palmitic and higher in stearic acid than the Saudi sample. Mashaly, Abdallah, Emara & Elmossalami, Int. J. Vet. Sci. 9(2):279-284 (2020), Table 4, hump fat of 5-year-old male dromedaries slaughtered in Cairo: C10:0 0.10, C12:0 0.44, C14:0 6.30, C14:1 1.13, C15:0 0.27, C16:0 33.87, C16:1 0.31, C18:0 10.0, C18:1 41.88, C18:2 0.10, C18:3 0.03, C20:0 4.90, C22:0 0.01, unknown 0.66 (SFA 55.89, MUFA 43.32, PUFA 0.13) - set aside as an outlier: 4.90 % arachidic acid in hump fat, and in the same table renal fat with 1.94 % stearic acid and mesenteric fat with no stearic acid at all, are not credible for these fats (packed-column GC; read from the -raw pdftotext output, the -layout output scrambles the columns). NOT REACHED OR NOT PRIMARY: the Front. Nutr. 2026 review by Yasen et al. quotes density 0.9105 g/mL, melting point 48.19 C, iodine value 37.83 and saponification value 201.14 from a 2017 master's thesis (Inner Mongolia Agricultural University) - a thesis is not an allowed primary document and it was not opened, so none of those figures is used; Sbihi et al., Food Chem. 139:649-654 (2013, 'Hachi' dromedary hump fat) and Belfar et al., Eur. J. Lipid Sci. Technol. (2026, Algerian dromedary hump fat) are paywalled; Jassim et al., Ann. Res. Rev. Biol. (2018) was Cloudflare-gated; El-Anany & Ali, Riv. Ital. Sostanze Grasse 95:183-193 (2018) was not found in an open copy. meltingPointC and unsaponifiablePercent are therefore null. CosIng has no entry for camel fat, so inci is null.

This record is part of the open ingredient database (ODbL). Found an error or a better primary source? The dataset is on GitHub; corrections with a document link are welcome.