Binomial name:  Rhus chinensis
Family: Anacardiaceae (Cashew family)Synonyms:  Rhus semialata, Rhus javanica var. chinensis, Rhus amela
Common Name: Chinese Sumac, Chinese gall, Nutgall tree Local Name:  Tittar (तित्तर)

Tittar is a deciduous shrub or small tree that typically grows to a height of 5–8 meters. It thrives in warm-temperate and subtropical regions, often found on forest edges, hillsides, and scrublands at altitudes ranging from 500 to 2,500 meters. The plant is well-suited to dry, rocky soils but can also tolerate diverse soil types, making it an excellent species for areas prone to erosion.

Interviewing locals about traditional uses of Tittar.

 Tittar is easily recognised by its pinnate leaves, which are comprised of 9–15 ovate to lanceolate leaflets with serrated edges. These leaves turn vivid shades of red and orange in autumn, adding ornamental value. The flowers are small, greenish-yellow, and borne in terminal panicles, blooming from May to July. Fruits are small, round drupes that ripen to a reddish or brownish hue in late summer to autumn.

A plant of Tittar growoing wild

Tittar is relatively easy to cultivate, making it a popular choice for reforestation and ornamental purposes. It prefers well-drained soils and full sunlight but can tolerate partial shade. Propagation is primarily done through seeds, which should be soaked in warm water before sowing to enhance germination. The plant is drought-tolerant once established, requiring minimal care, though regular watering during the initial stages of growth promotes robust development.

Tittar in fruiting

The fruits of  Tittar, with their distinctively tangy, acidic flavor, offer a unique culinary and medicinal profile. Though individual fruits are small and contain minimal flesh, their abundance in tightly packed clusters makes them remarkably easy to harvest, even in large quantities.

Ambika cherishing acidic fruits of Tittar.

Culinary enthusiasts appreciate these fruits for their versatility—serving as a natural salt substitute in seasoning or as a rennet alternative for curdling milk in traditional cheese-making. Their acidic punch enhances the flavor of dishes, adding a touch of brightness and complexity that elevates both rustic and refined recipes.

Beyond the kitchen, these fruits hold a revered place in traditional medicine, where they are cherished for their therapeutic properties. Their ease of collection, coupled with their multifaceted uses, positions them as a valuable resource in both culinary and medicinal applications, perfectly blending nature’s simplicity with practicality.

Tittar stands out as a plant of immense ecological, medicinal, and economic importance. Its adaptability, combined with its diverse applications, underscores the need for greater awareness and cultivation of this remarkable species. Its striking autumn foliage makes it a popular choice for landscaping in parks and gardens. By promoting its sustainable use, we can harness its potential to support biodiversity, enhance livelihoods, and preserve traditional knowledge for future generations.

Habit, habitat and morphology of Tittar.

Tittar Plant:

Deciduous shrubs or small trees, up to 10 m tall. 

Young parts, petiole and inflorescence pubescent. 

Leaves pinnate; leaflets 9-13; lateral sessile, end one on winged stalk, ovate-lanceolate, closely and sharply toothed, lower surface tomentose 

Flowers ca 3 mm long, pale yellow-green, in large terminal panicles. 

Drupe tomentose, purplish-red, globose, 4-5 mm across.

Close-up of Tittar fruits.

Tittar is in flowering and fruiting from late summers to early winters. Its edible fruits can be harvested from autumn to start of winters. Edible leaves can be best collected from spring season to autumn. Fruits being means of natural propagation need to be sustainably harvested either by keeping some fruits on parent tree or by habitat rotation. 

Harvesting Tittar fruits

Edible Uses: 

The small, red, acidic fruits of Tittar  are rich in organic acids like malic and citric acids, which give them their characteristic tangy flavor. They also contain vitamin C, dietary fiber, and antioxidants such as tannins and flavonoids 1,2. The young leaves and fruits of Tittar are used as food additives, while the galls are employed in dyeing and tanning industries. The fruits have been used traditionally to flavour beverages and as a source of naturalizing agents.

Harvested fruits.

The fruits are dried, ground into a powder, and added to dishes for their tangy flavour. This use is prevalent in some East Asian cuisines, where it complements both savoury and sweet dishes. Additionally, the astringency of the fruit makes it suitable for use in beverages such as teas, providing both flavour and potential health benefits due to its antioxidant properties​. The fruits are sometimes used in pickling to add a zesty flavor. The high tannin content of the fruits can serve as a natural thickening agent in certain recipes. 

In traditional practices, Tittar fruits have also been employed to create fermented products and preserves, enhancing their shelf life while diversifying their culinary uses. Its leaves have limited but occasional use in flavouring, especially in traditional herbal teas​ Here are some traditional recipes featuring Tittar primarily utilizing its fruit for its souring and medicinal properties:

Recipe of tonic tea from Tittar fruits.

Tangy Tittar Tea

Ingredients:

Dried fruits, 2 tablespoons; water, 2 cups; honey or jaggery (optional)

Tittar fruits collected for making tea.

Method:

Boil the water and add the dried fruits. Simmer for 10 minutes, then strain the liquid. Sweeten with honey or jaggery if desired. Serve warm or chilled. This tea is traditionally consumed for its digestive benefits and refreshing flavour.​

Tea from Tittar fruits.

Tittar Spice Rub

Ingredients:

Dried Tittar fruit powder, 50g; Salt, crushed garlic  and black pepper to taste.

Method:

Mix all the ingredients to form a spice rub. Use to marinate vegetables for a tangy, flavourful dish.

Tangy Chutney

Ingredients:

Dried Tittar fruits, 1 cup; chili powder, 1 teaspoon; cumin seeds, ½ teaspoon; salt to taste; water (as needed).

Method:

Soak the fruits in warm water for an hour. Grind with chili powder, cumin seeds, and salt into a thick paste. Serve as a side dish with bread or rice.

Chutney from Tittar fruits served with chilla .

Tittar Lemonade

Ingredients:

Tittar fruit powder, 1 tablespoon; water,1 cup; lemon juice, 1 tablespoon; sugar or honey (to taste)

Method:

Mix the fruit powder with water and stir well. Add lemon juice and sweeten with sugar or honey. Serve over ice for a refreshing drink.

Tittar -infused Salad Dressing

Ingredients:

Tittar fruit powder, 1 teaspoon: olive oil, 3 tablespoons; lemon juice , 1 tablespoon ; honey, 1 teaspoon; salt and pepper to taste

Method:

Combine all the ingredients in a bowl and whisk until smooth. Drizzle over fresh salads or roasted vegetables.

Tangy Tittar Sarbet

Ingredients:

Tittar fruit juice (extracted by boiling fresh fruits and straining), ½ cup; sugar,1 cup; water, 2 cups : lemon juice, 1 tablespoon. 

Tittar fruits collected for making sherbet

Method:

Dissolve sugar in water over low heat to make a syrup. Cool. Mix the syrup with Tittar  fruit juice and lemon juice. Freeze, stirring occasionally to break ice crystals, or use an ice cream maker.

Sharbet from Tittar fruits.

Seek Professional advice before treating this plant medicinally.

Medicinal Uses:

Tittar has long been revered in traditional medicine for its ability to address a wide array of ailments. Its roots, stems, leaves, fruits, seeds, and tannin from galls have been traditionally utilized to treat inflammation, malaria, diarrhea, jaundice, hepatitis, dental caries, cough, colic, colds,  stop intestinal and uterine bleeding 3,4,5. These practices reflect a deep understanding of the plant’s diverse pharmacological potential.

Exploring kids love for Titter fruits

Recent scientific advancements have provided robust evidence supporting these traditional uses. Research reveals that Tittar is a rich source of bioactive compounds, including flavonoids, phenolics, and triterpenoids, which contribute to its broad spectrum of medicinal properties 6,7. The plant exhibits remarkable therapeutic effects, including its liver protecting function and mitigating liver diseases 8,9regulating fat metabolism and reducing body weight 10,11,  Shielding the gastrointestinal system against damage12,  lowering blood sugar levels and enhancing insulin sensitivity13,  neutralizing harmful free radicals to prevent oxidative stress 14,15,  reducing inflammation at both cellular and systemic levels 16, combatting a range of pathogens, including those responsible for dental caries 17,18,  inhibiting cancer cell proliferation and inducing apoptosis 19,20,  preventing dental decay through antibacterial effects 21,  strengthening bone health and preventing bone density loss22,  reducing the risk of coronary heart disease 23.

These findings underscore  Tittar as a promising candidate for developing novel treatments for chronic diseases and infections. Its integration of traditional wisdom and modern pharmacology showcases its role as a truly multipurpose medicinal plant, offering potential solutions to some of the most pressing health challenges of our time.

Other Uses. 

The diverse utility of  Tittar has been recognized in various industries, including dyeing, cosmetics, and candle-making. Its parts—leaves, galls, and seeds—offer multiple benefits. The leaves of Tittar are rich in tannins and can be collected during autumn after they fall naturally. These leaves are traditionally used as a brown dye or as a mordantin textile dyeing processes 24. The galls produced on the plant, containing up to 77% tannins, are particularly valued for their dyeing potential, yielding a blue dye that doubles as an ink 25. Oil extracted from the seeds of Tittar solidifies into a tallow-like consistency upon standing. This oil is highly suitable for making candles that burn brightly. However, they emit a distinctive, pungent smoke during combustion, which limits their use in enclosed spaces 26. Extracts derived from various parts of the plant are extensively used in the cosmetics industry for their skin-conditioning properties. Its gall extract incorporated into commercial preparations to enhance skin texture and condition 27Leaf and stem extracts are recognized for their multifunctional benefits, includingantifoaming, antimicrobial, astringent, emollient,and hair-conditioning properties, making them a valuable ingredient in shampoos, creams, and lotions 28 . The high tannin content in the leaves and galls makes Tittar an important resource for industrial applications such as tanning and leather production 29.This rich spectrum of uses underscores the economic and ecological importance of Tittar, encouraging further exploration of its potential in sustainable industries.

Role in Phytoremediation: 

Studies indicate that Tittar can accumulate heavy metals such as cadmium (Cd), lead (Pb), and chromium (Cr) in its tissues, thereby reducing soil contamination. Its robust root system enables it to stabilize polluted soils, preventing the leaching of heavy metals into groundwater  30.The plant’s tannin-rich leaves and galls have been found to chelate toxic metal ions, improving soil quality and reducing the bioavailability of heavy metals. These tannins also enhance microbial activity in the rhizosphere, which aids in the breakdown of pollutants31.
Due to its dense foliage and ability to withstand harsh environmental conditions, Tittar is often planted in urban areas to combat air pollution. It has shown effectiveness in absorbing particulate matter and gaseous pollutants, contributing to improved air quality 32. The plant has been successfully used in rehabilitating abandoned mining areas, where its resilience to poor soil conditions and pollutant load helps in re-establishing vegetation cover. Its role in soil stabilization and reduction of erosion is particularly notable in these projects 33.Research suggests that Tittar can assist in the degradation of hydrocarbon pollutants, such as those from oil spills, through its rhizosphere activity. The microbial communities supported by the plant’s root exudates play a crucial role in breaking down these complex compounds34.

References:

  1. Devi, Y. M. 2019. Nutritional composition and traditional medicinal uses of Rhus chinensis. International Journal of Botany Studies, 4(2): 56-62.
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