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Description

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admin (19653 pt) 2024-Oct-03 10:00

Citrus Sphaerocarpa Fruit Juice is the juice extracted from the fruit of the Citrus Sphaerocarpa tree, a type of citrus commonly known in Japan as "kabosu." This fruit juice is rich in vitamins, antioxidants, and bioactive compounds, making it a popular ingredient in skincare, hair care, and cosmetic formulations. Known for its brightening, astringent, and antioxidant properties, it helps to revitalize the skin, promote even skin tone, and protect against environmental damage. In addition, it has hydrating properties, making it ideal for moisturizing formulations.

Chemical Composition and Structure
Citrus Sphaerocarpa fruit juice is composed of a high concentration of vitamin C, flavonoids, organic acids (such as citric acid), and essential oils. The bioactive compounds in the juice, such as limonene and flavonoids, contribute to its antioxidant and anti-inflammatory properties. The juice is acidic due to its citric acid content, which helps exfoliate the skin and promote cell renewal, making it effective in brightening and clarifying formulations.

Physical Properties
Citrus Sphaerocarpa fruit juice is typically a pale yellow or light green liquid with a fresh citrus scent. It is water-soluble and easily incorporated into aqueous-based formulations such as serums, toners, and lotions. The juice is acidic, with a pH typically around 3 to 4, which contributes to its exfoliating and astringent properties. It is lightweight and provides a refreshing, non-greasy feel to products.

Production Process
The production of Citrus Sphaerocarpa fruit juice involves the following steps:

  1. Harvesting: The fruits of the Citrus Sphaerocarpa tree are harvested when ripe.

  2. Juice Extraction: The juice is extracted from the fruit through mechanical pressing or squeezing, followed by filtration to remove any solid particles.

  3. Processing and Preservation: The juice may undergo mild pasteurization or be treated with natural preservatives to extend its shelf life while maintaining its bioactive properties.

  4. Formulation: Once processed, the juice is incorporated into various cosmetic formulations for skincare and haircare products.

Applications

  • Skincare: Citrus Sphaerocarpa fruit juice is widely used in skincare products for its brightening and exfoliating effects. It helps to even out skin tone, reduce the appearance of dark spots, and enhance the skin's radiance. Its astringent properties also make it effective in controlling excess oil and refining pores, making it suitable for toners, serums, and facial masks.

  • Anti-Aging: The high antioxidant content of Citrus Sphaerocarpa fruit juice, especially its vitamin C and flavonoids, helps to protect the skin from free radical damage, reducing signs of aging such as fine lines and wrinkles.

  • Hydrating and Soothing: In addition to its brightening effects, the juice provides hydration and soothes the skin, making it ideal for moisturizing creams and lotions that aim to refresh and hydrate the skin.

  • Hair Care: In hair care formulations, Citrus Sphaerocarpa fruit juice can be used to add shine and clarify the scalp, removing buildup and leaving the hair feeling clean and refreshed.

  • Medical: Consumed to aid digestion and improve overall health due to its high antioxidant capacity (1). The hexane extract of Citrus sphaerocarpa seems to suppress lipid accumulation (2).

INCI Functions:

Skin conditioning agent - Miscellaneous. This ingredient has the task of modifying the condition of the skin when it is damaged or dry by reducing its flakiness and restoring its elasticity.

Environmental and Safety Considerations

Citrus Sphaerocarpa fruit juice is generally considered safe for topical use in skincare and hair care products. It is non-toxic and non-sensitizing, although its acidic nature may cause irritation for individuals with very sensitive or damaged skin, particularly in high concentrations. It is advisable to use sunscreen when applying products containing citrus extracts, as they may increase photosensitivity.

Environmentally, Citrus Sphaerocarpa fruit juice is derived from a natural, renewable source, making it a sustainable ingredient. The fruit's cultivation and processing typically have a low environmental impact, especially when sourced from sustainable farms. The byproducts of juice production, such as peels and seeds, are often repurposed, further minimizing waste.

References__________________________________________________________________________

(1) Tomiyama K, Aoki H, Oikawa T, Sakurai K, Kasahara Y, Kawakami Y. Characteristic volatile components of Kabosu (Citrus sphaerocarpa Hort. ex Tanaka). Nat Prod Commun. 2011 Mar;6(3):403-8. 

Abstract. The volatile components of both peel and juice of Japanese citrus, Kabosu (Citrus sphaerocarpa Hort. ex Tanaka) were investigated using SAFE (Solvent Assisted Flavor Evaporation) technique after solvent extraction. In this study, wine lactone, rose oxide, (2E)-4,5-epoxy-2-decenal, mintsulfide, and indole were newly identified from Kabosu. AEDA (Aroma Extract Dilution Analysis) of the oxygenated fraction of the peel extract showed high FD (Flavor Dilution) factors for linalool, (2E)-4,5-epoxy-2-decenal, octanal, (4Z)-decenal, beta-citronellol, geraniol, and wine lactone, while wine lactone, linalool, eugenol, geraniol, and (2E)-4,5-epoxy-2-decenal from the juice extract. The enantiomeric distribution of linalool, cis-rose oxide, beta-citronellol, and wine lactone were also determined using a multidimensional chiral GC/MS.

Akakabe Y, Sakamoto M, Ikeda Y, Tanaka M. Identification and characterization of volatile components of the Japanese sour citrus fruit Citrus nagato-yuzukichi Tanaka. Biosci Biotechnol Biochem. 2008 Jul;72(7):1965-8. doi: 10.1271/bbb.80144.

Abstract. A total of 39 aroma compounds were detected in the essential oil of Citrus nagato-yuzukichi Tanaka (nagato-yuzukichi) by gas chromatography-mass spectrometry (GC-MS). The essential oil was characterized by a high percentage of monoterpene hydrocarbons (12 components, 90.52%). The composition pattern of essential oil in C. nagato-yuzukichi was fairly similar to that of Citrus sudachi Hort. ex Shirai (Sudachi). Principal component analysis (PCA) of data obtained with an electronic nose indicated a variation of each oil along PC1. The oils of Citrus junos Tanaka (Yuzu) and Citrus sphaerocarpa Tanaka (Kabosu) showed a clear upward displacement as compared with those of C. nagato-yuzukichi and C. sudachi. However, in PC2, the oils of C. nagato-yuzukichi and C. sudachi showed a displacement in a negative direction and a positive one respectively.

(2) Zang L, Kagotani K, Hayakawa T, Tsuji T, Okumura K, Shimada Y, Nishimura N. The Hexane Extract of Citrus sphaerocarpa Ameliorates Visceral Adiposity by Regulating the PI3K/AKT/FoxO1 and AMPK/ACC Signaling Pathways in High-Fat-Diet-Induced Obese Mice. Molecules. 2023 Dec 9;28(24):8026. doi: 10.3390/molecules28248026. 

Abstract. Obesity is an emerging global health issue with an increasing risk of disease linked to lifestyle choices. Previously, we reported that the hexane extract of Citrus sphaerocarpa (CSHE) suppressed lipid accumulation in differentiated 3T3-L1 adipocytes. In this study, we conducted in vivo experiments to assess whether CSHE suppressed obesity in zebrafish and mouse models. We administered 10 and 20 μg/mL CSHE to obese zebrafish juveniles. CSHE significantly inhibited visceral fat accumulation compared to untreated obese fish. Moreover, the oral administration (100 μg/g body weight/day) of CSHE to high-fat-diet-induced obese mice significantly reduced their body weight, visceral fat volume, and hepatic lipid accumulation. The expression analyses of key regulatory genes involved in lipid metabolism revealed that CSHE upregulated the mRNA expression of lipolysis-related genes in the mouse liver (Pparα and Acox1) and downregulated lipogenesis-related gene (Fasn) expression in epididymal white adipose tissue (eWAT). Fluorescence immunostaining demonstrated the CSHE-mediated enhanced phosphorylation of AKT, AMPK, ACC, and FoxO1, which are crucial factors regulating adipogenesis. CSHE-treated differentiated 3T3L1 adipocytes also exhibited an increased phosphorylation of ACC. Therefore, we propose that CSHE suppresses adipogenesis and enhances lipolysis by regulating the PI3K/AKT/FoxO1 and AMPK/ACC signaling pathways. These findings suggested that CSHE is a promising novel preventive and therapeutic agent for managing obesity.