Sarcomphalus mistol

Sarcomphalus mistol · Accepted scientific name

Scientific literature: Very Sparse (1 studies) · ★☆☆☆☆

Sarcomphalus mistol is a notable botanical species recognized for its significant biological potential. Scientific investigations have focused on the diverse therapeutic properties found within its biological components. Specifically, both the fruit and the leaf have been identified as key sources of bioactive compounds. Researchers utilize aqueous plant extracts (PE) to study the specific medicinal benefits of these parts. Current studies highlight that these preparations demonstrate notable antioxidant activities.

Quick facts
Synonyms
Ziziphus Oblongifolia · Ziziphus Mistol · 1 more
Common names
Not available
Family
Rhamnaceae
Distribution
Not available
Plant Parts
Fruit · Leaf

Classification

Common Names

Sarcomphalus mistol is a distinctive plant known by several different names depending on the local region. It is frequently referred to by its common name, Mistol, which is widely recognized among those familiar with its habitat. In certain areas, the species is also called Olho-de-boi, a name that highlights its unique physical characteristics. Additionally, it is sometimes associated with the name Zizyphus oblongifolius in various botanical contexts. Understanding these various identities helps clarify the diverse ways this plant is categorized in the wild.

Sources: Catalogue of Life (COL)

Synonyms

Sarcomphalus mistol is a botanical species that has historically been associated with several different scientific names. In many taxonomic records, it is recognized by the synonym Ziziphus mistol. The plant's classification has also been linked to Ziziphus oblongifolia in various studies. Furthermore, the name Ziziphus weberbaueri serves as another recognized synonym within its complex naming history. Understanding these shifting relationships is essential for accurate identification and botanical research.

Sources: The World Checklist of Vascular Plants (WCVP)

Taxonomy

Sarcomphalus mistol is a distinctive member of the kingdom Plantae. This plant is classified under the class Equisetopsida, showcasing its place within the broader botanical world. Within this group, it belongs to the order Rosales, which connects it to many well-known flowering species. It is further categorized into the family Rhamnaceae, a group known for its unique botanical characteristics. Ultimately, its specific identity is defined by its membership in the genus Sarcomphalus.

Rank Classification
Kingdom Plantae
Phylum Streptophyta
Class Equisetopsida
Subclass Magnoliidae
Order Rosales
Family Rhamnaceae
Genus Sarcomphalus

Sources: The World Checklist of Vascular Plants (WCVP)

Distribution

Geographic Regions

Sarcomphalus mistol is widely distributed across several key regions of Southern and Western South America. In the southern reaches of the continent, this plant can be found spanning the Northeast and Northwest regions of Argentina as well as throughout Paraguay. Its presence extends further west into the diverse landscapes of Bolivia. Additionally, the species maintains a significant footprint within the territory of Peru. Collectively, these locations highlight the expansive geographical range of this unique plant.

Sources: The World Checklist of Vascular Plants (WCVP)

Identification

Morphology

Sarcomphalus mistol is a self-supporting plant that takes the form of a sturdy tree. This species typically reaches a maximum height of 15 meters in certain environments. However, its growth can also be more modest, reaching a maximum height of only 8 meters. Regardless of its size, the plant maintains a consistent structural presence within its habitat.

Sources: Global Inventory of Floras and Traits (GIFT)

Biological Activities

Sarcomphalus mistol, a native tree from the Chaco region of Argentina, represents a significant and underutilized resource for medicinal and cosmetic development. Recent studies have focused on preparing aqueous extracts from various organs of this species, including its fruit, leaves, branches, and bark. These plant extracts have demonstrated notable antioxidant activity, which plays a crucial role in their functional application. When used to coat TiO2 nanoparticles, the antioxidant properties of the extracts help reduce photocatalytic activity and enhance stability. Ultimately, the phytochemical potential of this species suggests it could be a valuable component in future sun protection formulations.

Compounds

Conditions

Sarcomphalus mistol aqueous extracts are utilized as a coating material for TiO2 to create specific nanocomposites. These plant-based coatings serve to treat the photocatalytic activity of the TiO2, resulting in almost null activity compared to bare suspensions. The reduction in photocatalytic performance is directly linked to the internal filter effect and the antioxidant capacity provided by the phytochemicals in the extract. This interaction allows the plant material to effectively suppress the radical-generating properties of the semiconductor. Consequently, the use of Sarcomphalus mistol extracts transforms the material into a stable substance suitable for broadband photoprotection applications.

Preparations

Sarcomphalus mistol is prepared as aqueous plant extracts (PE) using various harvested organs, including the fruit, leaf, branch, and bark. These aqueous extracts are derived from the native tree to harness its phytochemical compounds for specific functional applications. By processing the plant in this manner, researchers can characterize its spectroscopic and antioxidant properties. The resulting extracts are then utilized as coating materials for TiO2 to create specialized nanocomposites. This specific preparation method allows the plant's natural components to contribute to the development of broadband UV filters.

Parts used

Sarcomphalus mistol is a native tree from the Chaco region of Argentina that offers significant potential for medicinal and cosmetic applications. Researchers have focused on utilizing various organs of this species to develop innovative broadband UV filters. Specifically, both the fruit and the leaf of the plant were harvested to prepare aqueous extracts for scientific study. These extracts are used to coat titanium dioxide to create specialized nanocomposites with antioxidant properties. By leveraging these specific plant parts, scientists aim to transform local forest resources into advanced sun protection formulations.