eChapters

English name : Celery
Botanical name : Apium graveolens L.
Family : Apiaceae
Chromosome number : 2n = 22
Centre of origin : Italy
Celery is botanically known as Apium graveolens L. and is commercially recognized by different names in India, like Karnauli, Ajmod, or garden celery. There are four horticultural varieties of celery. Apium graveolens var. dulce (Miller) Pers. is cultivated for its edible leaves and stalks, commonly used in salads, appetizers, and soups. Another variety, var. rapaceum (Mill) Gaudich, known as celeriac, comprises dark green leaves grown for its root tubers, which are cooked and consumed. The other two varieties are var. secalinum and smallage.
In India, the main variety cultivated is var. dulce. Celery is commercially available in various forms, including seeds, flakes, as a vegetable, celery seed oil, and oleoresin. Celery seeds have specific quality characteristics viz. moisture content ranges from 5-11%, volatile oil content from 1.5-3% (average 2.4%), non-volatile ether extract from 5.8-14.2% (average 9.4%), cold water extract from 5.9-12.6% (average 8.4%), total ash from 6.9-11.0% (average 8.8%), and ash insoluble in acid from 0.5-4.0% (average 2.5%).

English name : Bishop’s weed, Ajowan
Botanical name : Trachyspermumammi (L.) Sprague
Family : Apiaceae
Chromosome number : 2n = 18
Centre of origin : Egypt
Ajowan is an annual herbaceous plant grown for its herb and greyish brown fruits (seeds) which constitute the spice. The trade name ajowan or ajwain
is based on the Indian name which is derived for adarjawan. It is known as ‘Bishop’s weed’ in English. Ajowan is grown for its seeds (fruits) the composition of which is as follows; moisture 8.9%, protein 15.4%, fat (ether extract) 18.1%, crude fibre 11.9%, carbohydrates 38.6%, mineral matter (total ash) 7.1%, calcium 1.42%, phosphorus 0.30%, iron 14.6 mg/100 g, vitamins (per 100 g) thiamine 0.21 mg, riboflavin 0.28 mg, nicotinic acid 2.1 mg, carotene 71 mg. Its calorific value is 379.

English name : Saffron
Botanical name : Crocus sativus L.
Family : Iridaceae
Chromosome number : 2n =3x= 24
Centre of origin : Southern Europe
Saffron (Kesar) comprises the dried, tri-lobed stigmas of Crocus sativus L., a bulbous perennial of the Iridaceae family. Saffron, one of the oldest and costliest spices in the world, is often confused with meadow saffron (Colchicum automnale L., family Liliaceae) or safflower, also called bastard saffron (Carthamus tinctorius L., family Compositae), which are sometimes used as adulterants. Producing one pound of saffron requires harvesting 75,000 flowers by hand to obtain 2,25,000 to 5,00,000 dried stigmas. Saffron is characterized by its vibrant yellow-red colour, a distinct, intense aroma, and a slightly bitter, exotic taste.

English name : Vanilla
Botanical name : Vanilla fragrans (Salisb)
Family : Orchidaceae
Chromosome number : 2n =32
Centre of origin : Mexico
Orchid (Vanilla fragrans Salisb Syn. V. Planifolia Andrews) is an orchid belonging to the family Orchidaceae. Vanilla is cultivated primarily for its beans, which are prized for their sweet scent, rich aroma, and delightful flavour. As the most expensive spice, vanilla serves as the primary source of vanillin, a key ingredient used to flavour a variety of products such as ice cream, chocolate, beverages, cakes, custards, and other confectioneries. It is also widely utilized in the perfume industry and in its medicinal applications. Vanilla beans contain natural vanillin (1.3-3.8%), resins, fats, glucose, fructose, 26 volatile constituents, 144 additional volatile compounds, and moisture. “Vanilla sugar,” derived from these beans, is crucial in chocolate production. The curing process is essential for producing vanillin, the primary aromatic compound.

English name : Thyme
Botanical name : Thymus vulgaris L.
Family : Lamiaceae
Chromosome number : 2n = 30
Centre of origin : Mediterranean region
Thyme (Thymus vulgaris Linn.), also known as ‘Common Thyme’ or ‘Garden Thyme’, belongs to the Lamiaceae family and has been a vital herb spice for centuries. The name “thyme” originates from the Greek word meaning “to fumigate” or “thumus,” which symbolizes courage. The herb contains various nutrients, including moisture (7.1%), protein (6.8%), fat (4.6%), crude fibre (24.3%), carbohydrates (44.0%), mineral matter (13.2%), calcium (2.1%), phosphorus (0.20%), iron (0.14%), sodium (0.08%), potassium (0.9%), vitamin A (175 IU), vitamin B1 (51 mg), vitamin B2 (0.4 mg), vitamin C (12.0 mg), niacin (4.9 mg), and a calorific value of 340 calories. Upon distillation, thyme yields Red Thyme oil. Additionally, the herb contains triterpinoid saponins, flavones, ursolic acid (1.5% in tops), caffeic acid, bitter compounds, tannins, and resins. Other wild thyme species, such as T. serpyllum L., T. zygus L. (white thyme), and T. satureioides Coss and Bal, also produce volatile oils. The major compounds in T. zygus and T. serpyllum include thymol, linalool, and linalyl acetate, while T. satureioides contains thymol, borneol, and a-terpineol.

English name : Rosemary
Botanical name : Rosemarinus officinalis L.
Family : Lamiaceae
Chromosome number : 2n = 24
Centre of origin : Mediterranean region
Rosemary, botanically classified as Rosmarinus officinalis L. of the family Lamiaceae (Labiatae), is widely recognized as a culinary herb. When subjected to steam distillation, the leaves and flowering tops yield an essential oil. The name “rosemary” is believed to be associated with the Virgin Mary, as reflected in one of its Spanish names, romero, meaning “pilgrim’s flower.” This association further underscores its connection to the Virgin Mary. Dried rosemary leaves comprise approximately 5.7% moisture, 4.5% protein, 17.4% fat, 19% crude fibre, 47.4% carbohydrates, and 6.0% ash. Additionally, they are rich in minerals and vitamins, containing 1.5% calcium, 0.70% phosphorus, 0.03% iron, 0.004% sodium, 1.0% potassium, 175 IU of vitamin A per 100 g, 0.51 mg of vitamin B, 0.04 mg of another B-vitamin, 1.0 mg of niacin, and 61.3 mg of vitamin C per 100 g, with a caloric value of 440 calories per 100 g.

Introduction
India, renowned for its rich biodiversity and ancient tradition of Ayurveda, is home to an astonishing array of medicinal and aromatic plants. These plants, harboring bioactive compounds such as alkaloids, glycosides, terpenes, and flavonoids, have been harnessed for centuries to prevent, diagnose, and treat various health ailments. Medicinal plants, utilizing parts like leaves, roots, stems, or seeds, offer natural remedies for wellness. Meanwhile, aromatic plants, rich in fragrant volatile oils, are the cornerstone of essential oils, aromatherapy, and perfumery. A Legacy of Healing: History of Medicinal and Aromatic Plant Cultivation in India

Ancient India (3000 BCE - 500 CE)
Ayurveda's origins: Ayurveda, the traditional Indian system of medicine,
emerged around 3000 BCE, emphasizing the use of medicinal plants.
Vedic period (1500 BCE - 500 BCE)
• Ayurvedic texts like the Rigveda, Yajurveda, and Atharvaveda documented medicinal plant uses.
• Charaka Samhita and Sushruta Samhita (400 BCE - 200 CE): These seminal texts systematically described medicinal plant properties and uses.

Scientific name: Piper betle L.
Family: Piperaceae
The betel vine, scientifically known as Piper betle L., is a perennial climber native to Southeast Asia, including India. It belongs to the Piperaceae family. The betel vine has been an integral part of Indian culture, tradition, and medicine for thousands of years.
In Hinduism, the betel vine is considered a sacred plant, often offered to gods and goddesses. The leaves are used in various rituals, including weddings and pujas (prayer ceremonies). In Indian tradition, betel leaves are also offered as a mark of respect and hospitality to guests.
Betel leaves have been used in Ayurvedic medicine for their numerous health benefits. They are rich in antioxidants, anti-inflammatory compounds, and essential oils. The leaves are used to treat various ailments, including digestive issues, respiratory problems, skin conditions, and oral health issues.
In addition to their medicinal properties, betel leaves are also used as a mouth and breathe freshener. The leaves are chewed with betel nuts (areca nuts) and lime, a practice known as "paan" in India. The betel vine is a versatile plant with significant cultural, medicinal, and economic importance in India and other parts of Southeast Asia.

Scientific name: Atropa belladonna L.
Family: Solanaceae
Belladonna, also known as deadly nightshade, is a legendary Central European nightshade with a rich history. The plant contains hallucinogenic alkaloids, primarily atropine, which is named after the plant.
Origin and distribution
Atropa belladonna is native to temperate southern, Central, and Eastern Europe, as well as North Africa, Turkey, Iran, and the Caucasus. It has been naturalized in some areas of North America and is considered a weed species in regions with disturbed soils.
Botany
Belladonna, is a plant species characterized by its distinctive features. It grows to a height of approximately 1.5 meters, with a purplish-colored stem. The root system is thick, fleshy, whitish, and branched. The plant's leaves are simple, dark greenish in color, ovate, and alternate in nature. The flowers are solitary and bell-shaped, blooming from June to September. The plant produces berries that are highly toxic, and the seeds contain toxic alkaloids.

Scientific name: Cinchona spp.
Family: Rubiaceae
Cinchona, a genus of flowering plants, comprises approximately 65 species. Several species, including Cinchona succirubra, C. officinalis, and C. ledgeriana, are cultivated for their bark, which contains quinine and other antimalarial compounds.
Origin and distribution
Native to the highlands of South America, Cinchona was introduced to India's Nilgiris in 1859. It is currently cultivated in the Anamalai and Nilgiris hills of Tamil Nadu, as well as in Darjeeling, West Bengal.
Botany
Cinchona is a majestic evergreen plant that can grow to varying heights, ranging from 5 to 15 meters. Its trunk is covered with a smooth, greyish-brown bark that peels off in thin layers. The branches are slender, pubescent, and arranged in a whorled pattern. The leaves of the Cinchona plant are simple, oppositely arranged, and decussate. They are elliptical or lanceolate in shape, with a pointed apex and a rounded base. The leaves are 10-20 cm long, 2-5 cm wide, and have a leathery texture. The upper surface is dark green, glossy, and glabrous, while the lower surface is pale green, pubescent, and has prominent midribs.

Scientific name: Dioscorea alata L.
Family: Dioscoreaceae
Dioscorea alata, commonly known as water yam or purple yam, is a species of yam belonging to the family Dioscoreaceae. Native to Southeast Asia, this tropical and subtropical crop has gained popularity worldwide for its edible, nutrient-rich tubers. The plant's unique characteristic is its purple-colored tubers, which owe their distinct hue to anthocyanins, powerful antioxidants that provide numerous health benefits. With its exceptional nutritional profile, Dioscorea alata has become an attractive alternative to other tubers, offering a valuable addition to various culinary dishes.
Origin and distribution
Dioscorea alata, a yam species, exhibits a widespread geographical distribution, with its origin tracing back to Southeast Asia. Phylogeographical studies indicate that the species has undergone extensive dispersal and cultivation, resulting in its presence globally in tropical and subtropical regions. Notably, D. alata has become naturalized in the southeastern United States, the Caribbean, and parts of Africa, where it is widely cultivated for its edible tubers.

Scientific name: Plantago ovata Forsk.
Family: Plantaginaceae
Isabgol, or Psyllium husk or Blond psyllium, belongs to the family Plantaginaceae. This medicinal herb has been used for centuries in India, particularly for its seed's therapeutic properties. The name "Isabgol" originates from Persian, with "Isab" meaning horse and "Gol" meaning ear, describing the seed's distinctive shape. Isabgol is cultivated globally and is valued for its medicinal and industrial applications. The seed's medicinal properties make it an effective remedy for constipation and digestive issues. Additionally, Isabgol is used in the food industry to produce various products, such as candies, biscuits, and ice cream.
Origin and distribution
Isabgol (Plantago ovata) is native to the Mediterranean region, West Asia, and parts of Pakistan, including Sindh and Sutleg. Its distribution also extends to the Canary Islands, Southern Spain, the Middle East, North Africa, and North- Western Asia.
Botany
It is 10-15 cm tall short-stemmed annual herb. Flowers in terminal spikes; fruit is a capsule. Theflowers are white in colour and minute. It is highly selfpollinated. The capsule is ovate, 8 mmlong, releasing the smooth, dull, ovate seeds. The seeds are covered with a translucent membrane, known as the husk. The husked seeds are dark red and hard.

Scientific name: Piper longum L.
Family: Piperaceae
Piper longum, commonly known as long pepper, is a flowering vine native to the tropical regions of India, Southeast Asia, and Sri Lanka. It has been used for centuries in traditional medicine, particularly in Ayurveda and Unani systems, for its numerous health benefits. The plant is characterized by its slender stems, heart-shaped leaves, and spikes of small flowers. The fruit of the plant, a small, elongated berry, is the part commonly used for medicinal and culinary purposes.
Origin and distribution
The plant is native to South and Southeast Asia. The wild type of Piper longum is mainly found in Kerala, Assam, West Bengal, Nepal, Uttar Pradesh, Andhra Pradesh, and the North East region. The plant is cultivated in various parts of India, including Bengal, Assam, Maharashtra, Tamil Nadu, Orissa, and Meghalaya. Piper longum naturally occurs in the central Himalayas to Assam, Khasi and Mikir hills, and the evergreen forests of Western Ghats from Konkan to Kanyakumari and Nicobar Island.

Scientific name: Catharanthus roseus (L.) G.Don
Family: Apocyanaceae
Catharanthus roseus (Vinca rosea)is a perennial flowering plant in the family Apocyanaceae. It is commonly known as Cape periwinkle, Madagascar periwinkle or graveyard plant etc. Periwinkle is an extensively investigatedmedicinal plant after the discovery of powerful anticancer alkaloids such as Vinblastine and Vincristine, in its leaves more than 50 years ago. These alkaloids have revolutionized  cancer treatment and saved countless lives worldwide. Today, Catharanthus roseus remains a vital source of inspirationfor cancer research and drug development.
Origin and distribution
Periwinkle is native and endemic to Madagascar. However, it is now cultivated and grown in many tropical and subtropical regions worldwide, including the southern United States, West Indies, and several states in India, such as Karnataka, Tamil Nadu, and Gujarat. Unfortunately, the plant is endangered in its natural habitat due to habitat destruction and burn and slash agriculture.
Botany
Periwinkle is a perennial herb belonging to the Apocynaceae family. It is a popular ornamental plant, often grown in gardens for its attractive pink and white flowers that bloom throughout the year. The plant has a spreading habit, with flexible, long branches that bear simple, opposite leaves. These leaves are elliptical to ovate in shape, measuring 2.5-5 cm in length and 1-2 cm in width, with a glossy, dark green appearance and a pointed tip.

Scientific name: Rauvolfia serpentina (L.) Benth. ex Kurz
Family: Apocyanaceae
Rauvolfia serpentina, also spelled as Rauwolfia, is indeed a vital plant in traditional Indian medicine. It has been used in folk medicine for centuries to treat conditions like snake and insect bites, malaria, dysentery, and more. This plant is deeply rooted in Indian culture, mentioned in Hindu manuscripts as far back as 1000 BCE. It's also known by various names, including Indian snake root, devil pepper, serpentine wood, sarpagandha, and chandrika. Botanically, it belongs to the family Apocynaceae, with the genus Rauvolfia comprising 74 species. Unfortunately, Rauvolfia serpentina is listed as endangered due to over-exploitation and habitat loss, emphasizing the need for conservation and sustainable use to ensure its availability for future generations.
Origin and distribution
The distribution of R. serpentina is very wide, is occurrence is sporadic. The plant commonly grows scattered and close to each other. They are widely distributed in the Sub Himalayan tract from Himachal Pradesh to Sikkim and Bhutan, Eastern and Western Ghats, in some parts of central India. Beyond India the plant is distributed in Bangladesh, Malaysia, Thailand, Nepal, Sri Lanka, Indonesia, and Burma.

Scientific name: Acorus calamus L.
Family: Acoraceae
Acorus calamus, commonly known as Sweet Flag, is a medicinal plant with a long history of therapeutic use. Various names in Hindi, Sanskrit, and other languages know it. The plant has a distinctive lemon-like scent in its leaves and a pleasant aroma in its roots. Sweet Flag is highly valued for its essential oil used in the perfume industry. Unfortunately, the plant is now classified as an endangered species due to over-exploitation.
Origin and distribution Acorus calamus, commonly known as Sweet Flag, is native to northern latitude countries worldwide. It is widely dispersed across the USA and can be found growing wild or cultivated in India and Sri Lanka up to 1800 meters.
Botany
Sweet Flag is a perennial, semi-aquatic herb that exhibits a distinctive morphology. The rhizome, which serves as the plant's stem, is cylindrical in shape, measuring 19-25 mm in diameter and 10 cm in length. The exterior of the rhizome is light brown in color, while the interior is white and spongy. The rhizome is also highly aromatic, emitting a sweet, pungent scent when bruised. It is a creeping, highly branched structure that allows the plant to spread rapidly.

Scientific name: Ammi majus L.
Family: Apiaceae
Ammi majus L., a member of the Apiaceae family, is a valuable medicinal plant. Its botanical name is derived from the Greek words "Ammi" and "majus," meaning "sand" and "larger," respectively. This plant has been used for centuries in traditional medicine, particularly for its antispasmodic and anti-inflammatory properties.
Origin and distribution
Ammi majus L. is native to Egypt and is now cultivated in various parts of the world, including India, Europe, and North Africa. It has been introduced to many countries for its medicinal and ornamental value.
Botany
This herbaceous annual plant grows up to a height of 0.75 to 1.15 meters. It has a round, erect, and solid stem with a tap root system. The large leaves are 5-8 cm long, alternate, and light green, with a compound, pinnately divided, and lanceolate shape.
The inflorescence is an umbel, axillary, and terminal in position, bearing white flowers. The calyx tube is adnate to bracts, with 5 teeth. The petals are 5 in number, epigynous, distinct, and bifid. There are 5 stamens, epigynous, and alternate with petals. The ovary is inferior, 2-celled, disk epigynous, 2-lobed, with a solitary ovule in each cell. The style has 2 branches, with a minute and capitulate stigma.

Scientific name: Cymbopogon spp.
Family: Poaceae
Citronella was first introduced in India in 1959 from Indonesia, specifically from Java Island, which is why it is also known as Java citronella. This fragrant grass, belonging to the Poaceae family, yields essential oils when steam-distilled. The resulting citronella oil (Cymbopogon winterianus Jowitt) is widely used globally in various industries, including flavoring, soap, perfumery, and cosmetics. There are two main types of citronella: Ceylon and Java. The species C. nardus yields Ceylon-type oil, while C. winterianus yields Java-type oil. Java-type oil
is preferred over Ceylon-type oil due to its higher citronellal content, ranging from 30-38% compared to 20-25% in Ceylon-type oil.
Origin and distribution
Citronella originated in tropical Asia, specifically in Indonesia (Java Island) and Sri Lanka. Today, it is cultivated in many tropical and subtropical regions worldwide. In India, citronella is grown in several states, including Maharashtra, Uttar Pradesh, and Madhya Pradesh. It is also cultivated in other parts of Southeast Asia, such as Malaysia, the Philippines, and Thailand. Citronella is also grown in Africa, Central and South America, and the Pacific Islands, where the warm and humid climate provides ideal conditions for its growth.

Scientific name: Pelargonium graveolens L. Herit
Family: Geraniaceae
Geranium, scientifically known as Pelargonium graveolens L. Herit, belongs to the Geraniaceae family. This aromatic plant is highly valued for its essential oil, which boasts an intense rose-like fragrance. Geraniol and citronellol are the primary constituents of this oil. There are approximately 600 species within the genus Pelargonium, many of which possess a pleasant odor, although only a few have attained commercial significance.
Types of Geranium
There are two primary types of geranium: Algerian or Tunisian Type: Characterized by slender, erect plants with dark pink flowers. This variety contains 0.3% oil, with 57% 1-citronellol. It is commonly grown in the Nilgiris and is unsuitable for wet conditions. Reunion or Bourbon Type: Produces more bushy growth with light-pink flowers. The oil has a higher 1-citronellol content (59.4%). This variety is grown in the Nilgiris and Anamalais and is more suitable for wet conditions.

Scientific name: Ocimum sanctum L.
Family: Lamiaceae
The ‘Sacred basil’ or ‘Holy basil’, Ocimum sanctum Linn. a biennial shrub belonging to the family Lamiaceae, is commonly cultivated in gardens. The Hindus of India worship the species and is traditionally grown in courtyards and temples. The aromatic plants belonging to genus Ocimum is popularly known by the name Basil. Basil was derived from Greek word “Basilica” which means royal plant. Among the Ocimum genus Ocimum basilicum is variously known as Sweet basil, French basil or Common basil. Ocimum sanctum is known as sacred basil or Holy basil which is a very sacred plant according to Hindu belief.
Origin and distribution
Ocimum Sanctum has broad distributions, covering the entire Indian subcontinent, ascending up to 1,800 m in the Himalayas and as far as the Andaman and Nicobar Islands. This plant occupies a wide range of habitats.
Botany
Botanically, Ocimum sanctum is an erect, herbaceous, and softly hairy plant that exhibits extensive branching. It typically grows to a height of 30-75 cm. The leaves are entire, serrate, and pubescent on both sides, while the flowers are characterized by their purplish or crimson hue, arranged in racemes. The fruits of Ocimum sanctum are sub-globose or broadly ellipsoid in shape, slightly compressed, nearly smooth, and exhibit a pale brown or reddish coloration with small black markings. It is a biennial or triennial shrub.

Scientific name: Lavandula angustifolia Mill.
Family: Lamiaceae
Lavender is a small genus of perennial aromatic herbs, semi-shrubs, or shrubs. It comprises approximately 28 species, with three species being extensively utilized for extracting essential oils:
True Lavender (Lavandula angustifolia): One of the most important essential oils used in the perfumery industry.
Spike Lavender (Lavandula latifolia): Yields inferior oil, less fragrant than true lavender and rosemary.
Lavandin (Lavandula hybrida): is a hybrid of true lavender and spike lavender, possessing characteristics of both parents. The essential oil extracted from Lavandin combines the sweet, floral fragrance of true lavender with the camphoraceous harshness of spike lavender. Although Lavandin oil has a unique fragrance profile, it is considered inferior to true lavender oil in terms of quality and finesse.
Origin and distribution
Lavender originates from the Mediterranean basin, typically thriving in rocky, calcareous areas. Its distribution spans North Africa, the Mediterranean, Europe, and Western India. Lavender has been cultivated since ancient times, with the Greeks and Romans being notable cultivators. The name "lavender" is derived from the Latin verb "lavare," meaning "to wash" or "to bathe."

Scientific name: Mentha spp.
Family: Lamiaceae
Mint belongs to the genus Mentha and is part of the Lamiaceae family, including popular herbs like basil, sage, and rosemary. There are several commercially grown mint species, each with unique chemical compositions, aromas, and uses.
Origin and distribution
Mint originated in the Mediterranean region and spread globally through natural and artificial means. Japanese mint is widely cultivated in Brazil, Paraguay, China, and India, while peppermint is grown in the USA, Morocco, Argentina, and Australia.
Botany
Japanese mint (Mentha arvensis) is a perennial, ascending herb that typically grows to a height of 60-80 cm, with the potential to reach up to 100 cm under favorable conditions. This herb is primarily propagated through its stolons, which enable it to spread and establish new plants. The leaves of Japanese mint are lanceolate-oblong in shape, featuring sharp teeth along their edges, and are supported by small petioles approximately 5 mm in length. The leaf lamina itself measures between 5 to 15 cm in length. Notably, the lower surface of the leaves is densely covered with hairy growths of glandular trichomes. The plant produces an abundance of small, purplish flowers in axillary and terminal verticillasters. These flowers are characterized by a corolla measuring 4-5 mm in length and a calyx that is narrowly deltoid and acuminate, measuring 2-3 mm. Japanese mint is sterile and does not produce seeds, relying solely on vegetative means of propagation.

Scientific name: Abelmoschus moschatus Medik.
Family: Malvaceae
Abelmoschus moschatusMedik., commonly known as ambrette, annual hibiscus, or musk mallow, is a tropical plant species belonging to the Malvaceae family. Native to India, Southeast Asia, and Africa, this herbaceous plant has been cultivated for centuries for its medicinal, culinary, and fragrant properties. It is an annual or biennial plant that grows up to 2 meters in height, with hairy, palmate leaves and showy, yellow flowers with a purple center. The plant's seeds, leaves, and flowers emit a strong, musky fragrance used in perfumery and traditional medicine. Abelmoschus moschatus is a warm-season crop that thrives in tropical and subtropical regions, requiring well-drained soil and full sun to partial shade. The plant has been used in traditional medicine for its anti-inflammatory, antibacterial, and antifungal properties, and its leaves and flowers are used as a vegetable and in salads. In contrast, the seeds are used as a spice. The plant's essential oil is also used in perfumes, cosmetics, and aromatherapy products, making it a valuable crop for small-scale farmers, providing income through the sale of seeds, leaves, and essential oil.
Origin and distribution
Abelmoschus moschatus, a tropical plant species, is native to India and widely cultivated in Southern China, Vietnam, Nepal, Tropical Asia, South East Asia, and parts of the Pacific. It is also found in the tropical regions of Africa, Australia, and the Americas.

Scientific name: Pogostemon cablin Benth.
Family: Lamiaceae
Patchouli (Pogostemon cablin) is a perennial herb native to Southeast Asia, commonly found in India, China, and Indonesia. This fragrant herb has been used for centuries in traditional medicine, perfumery, and spiritual practices. Patchouli leaves are ovate-shaped, with a rough texture and a powerful, earthy fragrance. The leaves are steam-distilled to produce a rich, dark green essential oil with a distinctive scent. Patchouli is known for its anti-inflammatory, antiseptic, and antifungal properties, making it a popular ingredient in aromatherapy, skincare, and insect repellents. In India, patchouli is considered a sacred herb and is often used in traditional Indian medicine, Ayurveda, and Hindu rituals and ceremonies.
Origin and distribution
Patchouli, a native plant of the Philippines and Indonesia, has been extensively cultivated in various regions. In Indonesia, patchouli cultivation began in Aceh, Sumatra, and later expanded to Java. In India, it is primarily grown in the coastal areas of Tamil Nadu, Karnataka, Assam, and West Bengal.

Scientific name: Chrysanthemum cinerariaefolium L.
Family: Asteraceae
Pyrethrum (Chrysanthemum cinerariaefolium L.) is a hearty perennial flower that thrives in interesting and challenging environments. It has been used for centuries as a natural insecticide. The pyrethrum daisy was first documented 2000 years ago, during the Chou Dynasty in China.
Origin and distribution
Pyrethrum originated in China over 2000 years ago and was later introduced to East Africa, where it is currently grown in Kenya, Uganda, Tanzania, and Rwanda. It is also grown in Tasmania, Australia, Ecuador, and Papua New Guinea.
Botany
Pyrethrum is a white flower-headed, tufted perennial herbaceous plant. It possesses deeply lobed leaves and has a numerous and fibrous shallow root system that extends up to 30 cm. The plant features numerous fairly rigid stems that grow up to 50-80 cm in height, accompanied by blue-green, deeply divided leaves. Notably, these leaves are covered on both sides by a dense, woolly material.

Scientific name: Vetiveria zizanioides L.
Family: Poaceae
Vetiver, scientifically known as Vetiveria zizanioides L., is a tropical grass species belonging to the Poaceae family. Native to India and Southeast Asia, Vetiver is a perennial grass that grows up to 2 meters in height, with long, thin leaves and a deep, fibrous root system. Vetiver is highly valued for its essential oil, which is extracted from its roots and used in perfumery, aromatherapy, and traditional medicine. The plant is also known for its soil-stabilizing properties, making it an effective tool for erosion control and land conservation.
Origin and distribution
Vetiver is native to the tropical regions of Asia, specifically India, Pakistan, Bangladesh, Sri Lanka, and Malaysia. It is cultivated and produced in many parts of the world, including Tropical Asia, Africa, Australia, Haiti, Indonesia, Guatemala, India, China, and Brazil. Vetiver is also grown in several other countries, such as the Philippines, Japan, Angola, Dominican Republic, Argentina, and Jamaica. The global production of Vetiver is estimated to be around 250 tons per annum. In India, Vetiver grows wild in various states, including Punjab, Uttar Pradesh, and Assam.

Scientific name: Pseudarthria viscida L.
Family: Fabaceae
Pseudarthira viscida is an important plant in the Indian conventional system of medicine. It is known as salaparni in Sanskrit, belongs to the Fabaceae family, and is distributed in peninsular India and Srilanka. It is among the dasamoola, a combination of roots of ten medicinal plants. It is used as a medicine for the treatment of various diseases due to its versatile nature and it is also an essential ingredient of various ayurvedic formulations such as Surasadi Thailam,Sudarsanasava, Balajeerakadhi Kashayam,Brihatyadi Kashayam, Surasadi Kashayam,Brahmarasayana. Pseudarthria viscida is a herbal plant that exhibits pharmacological andtherapeutic properties. It is widely used in ayurveda alone or poly-herbal formulations to treat various diseases. The whole plant is known for antipyretic, analgesic, antioxidant and anti-fungal effects. It is commercially and extensively used to treat tuberculosis, hemorrhoids, blood disorders, tumors, diabetes, hyperthermia and bronchitis. The root is the economic part, which alleviates tridoshas, namely vata, pitta, andcoupha. The roots are with thermogenic, astringent, emollient, digestive, febrifuge andcardiotonic. Majorchemical compounds present in the roots aregallic acid, caffeic acid, rutin, quercetin, ferulicacid and phenolic compounds and also reported with proteins, flavonoids and leucopelargonidin. Roots are
well known for anthelmintic,anti-diuretic and anti-inflammatory properties. Decoction of the root used against heart diseases, rheumatism, asthma and piles. Pseudarthria viscida is becoming extinct from nature, and its number has been reduced drastically. Due to the limited availability of Pseudarthria viscida, which is substituted by other leguminous trifoliate plant species such as Desmodiumpulchellum and Uraria rufescens. There for, it is put in the red list category and the plant requires proper management practices to exploit its therapeutic potential in the treatment of various diseases.

Scientific name: Centella asiatica (L) Urban
Fmily: Apiaceae
The plant Centella asiatica belongs to the family Apiaceae. C. asiatica widely distributed throughout tropical and subtropical regions of the world. Commonly known as Gotu Kola, Indian pennywort or Asiatic pennywort. It has a long history of utilization in Chinese and Ayurvedic traditional medicines since centuries. Leaves are yellowish-green color, thin and edible. The plant
grows horizontally through its stolones which roots in underground. C. asiatica shows a wide range of biological activities such as anti-inflammatory, anti-ulcer, wound healing, anti-psoriatic, anti-convulsant, hepato protective, immuno-stimulant, anti-diabetic, sedative, anti-bacterial, anti-viral, antitumor, cardio protective and anti-oxidant activities.
Origin and distribution
C. asiatica widely distributed throughout tropical and subtropical regions of the world. C. asiatica is widely found in Sree Lanka, India, Indonesi, Malaeysia and China. It is especially common in the Indian sub continent. It is also present in Eastern and Northern parts of Australia. It may also found in Tropical parts of Africa and Madagascar. C. asiatica has been introduced and is now cultivated or found in Thailand, Cambodia, Vietnam, The Philippines, Myanmar, and Brazil. Beyond Madagascar it is found in parts of Southern and Central Africa. The plant grows in countries such as Hawaii and Fiji. It is also found in Southern states like Florida.

Medicinal and Aromatic Plants (MAPs) are vital components of traditional medicine, perfumery, and cosmetics. To ensure the quality and sustainability of these plants, it is essential to adopt Good Collection and Agricultural Practices (GCAP). GCAP encompasses a set of guidelines and practices that promote the responsible cultivation, collection, and harvesting of MAPs.
Principles of GCAP
Sustainability: Ensure that the cultivation and collection of MAPs are sustainable and do not harm the environment or deplete natural resources. Quality: Maintain the highest quality standards for MAPs, from cultivation to harvesting and processing.
Traceability: Ensure that MAPs are traceable from the farm to the consumer, to guarantee authenticity and quality.
Fair Trade: Promote fair trade practices, ensuring that farmers and collectors receive fair prices for their products.
Environmental Stewardship: Protect biodiversity, conserve water, and minimize waste and pollution.
Agricultural Practices
Soil Conservation: Implement soil conservation techniques, such as contour farming and mulching, to prevent soil erosion.

Value addition refers to the process of increasing the economic value of a product, service, or commodity through various means, such as: Processing: Transforming raw materials into a more refined or finished product.
Enhancement: Improving the quality, appearance, or functionality of a product.
Differentiation: Creating unique features, branding, or packaging to distinguish a product from others.
Innovation: Introducing new or improved products, services, or processes. Value addition in medicinal and aromatic plants (MAPs) is essential to enhance their economic value, quality, and marketability. Here are key reasons why value addition is necessary:
Enhanced economic value
Value addition increases the economic value of MAPs, benefiting farmers and stakeholders. Primary processing and value addition are crucial in this regard. For instance, drying, cleaning, grading, and packaging are essential steps in adding value to MAPs.
Improved quality and shelf life Value addition helps preserve the bioactive compounds and aroma of MAPs, extending their shelf life. Techniques such as drying, extraction, and storage in airtight containers are vital in maintaining the quality of MAPs.

Introduction
Agriculture is an age-old income generation activity in India. It plays a vital role in India’s economy. One in every two Indians relies on agriculture for livelihood. Over 58% of the rural households depend on agriculture as their principal means of livelihood. Over the period of time, the contribution of agriculture and allied sector in Gross Domestic Products (GDP) in India has declined to 14.4% in 2018- 19 from 51.8% in 1950-51. At current prices, the contributions of industry and services sector are 31.5%, and 54.1%, respectively as against the contributions of industry and services sector were 15.1% and 33.1%, respectively in 1950-51. This decline in share of agriculture and allied sector is result of the shift from traditional agricultural economy to industry and service sectors, this performance are very meagre if we consider the size of the employment in this sector. Presently, more than 50% of the total workforce of the country is employed in agricultural sector contributing to only 14.4% of GDP. With production of agriculture activity 26of $375.61 billion, India is 2nd larger producer of agriculture product in the world after China which has contribution of $991 billion in agriculture sector. GDP of industry sector is $560.97 billion and world rank is 6th. In services sector, India’s world rank is 8th and GDP is $1500 billion (FAENI, 2018- 19). Interestingly, contribution of agriculture sector in Indian economy is much higher (7.4%) than world’s average (6.4%), while contribution of industry and services sector is lower than world’s average (30% for industry sector and 63% for services sector).

Abstract
Agriculture is still main grindstone for the population in India. Even though the insistence for the agriculture produces expanding constantly due to the rising in the population, Due to this, Indian farmers are not getting assisted in this context. The rate of drop out from agriculture is enhancing from generation to generation. One of the main apprehensions is agriculture which is not becoming effective for the farmers. Thus to preserve their lives many farmers are quitting agriculture and migrating to urban areas ultimately. This will leads to deterioration in supply of food grains to integrated nation. At the same time, the capacity of land is declining due to reduction in the fertility of the land over years. The input cost for agriculture is also increasing steadily. The situation arrived where we have to enhance the income levels of the farmers along with attaining the sustainability in the agricultural practices. Therefore, a shift from agriculture to agribusiness is an important pathway to revitalize Indian agriculture and to make more attractive and profitable venture.
Keywords: Agriculture, Agripreneurship, Sustainability, Entrepreneurship, etc.

Abstract
Sustainable entrepreneurship integrates social and environmental goals with economic viability, aiming to enhance human well-being while preserving ecological systems for future generations. Unlike conventional entrepreneurship, which prioritizes profit, sustainable entrepreneurship focuses on maintaining resources and bolstering socio-ecological systems through innovative, risk-taking ventures. It combines elements of ecopreneurship, social entrepreneurship, and institutional entrepreneurship to address environmental degradation and social inequities, creating value for diverse stakeholders. By realizing sustainability innovations, such enterprises meet unmet demands for environmental and social  improvements, contributing to equitable resource distribution and long-term societal benefits. The growing emphasis on sustainable development as a public policy priority underscores the need for entrepreneurship that supports ecological and social processes, fostering inclusive growth and resilience.
Keywords: Sustainable Entrepreneurship, Ecopreneurship, Social Entrepreneurship, Sustainable Development, Socio-Ecological Systems, Innovation, Resource Preservation, Stakeholder Engagement, Environmental Gains, Social Equity

In history, some developments were possible through belief and scientific study with evidence to support their claims. Our ancestors made ways of surviving on earth by varying the raw materials and tools. Science had absolutely no place, and all discoveries were derived through the trial-and-error method. The same was for agriculture, tracing back to our roots, the farming system was highly
dependent on the on-farm inputs. However, with the timeline of evolution, the exponential growth of the population demanded speedy growth in agricultural production giving rise to Green Revolution technologies (GRTs) in the mid- 1960s, which introduced high-yielding varieties of crops that were responsive to higher dosages of chemical fertilizers and irrigation and persuaded farmers to resort to intensive monocropping. Since the onset of GRTs in the mid-1960s, food production in India has risen five to ten-fold (Dasgupta, 1977).
However, while the past few decades have seen substantial ‘green revolution’ advances, I admit, the hazards have kept themselves hidden and well concealed--of these are significant adverse impacts on the natural resources, agriculture and its produce and indeed extend to human health (Koner & Laha, 2021). There is further proof that increasing dosages of chemical fertilizers led to an emergence of pest resurgence; pesticides residues considerably exceeding permissible limits contaminated drinking water and/or air often, a drop in biodiversity, nitrogen leaching and groundwater pollution, and soil heavy-metals build-up are very common in intensive agriculture regions (John & Babu, 2021). While such issues contributed to suicides in rural India, their unwarranted use also diminished pollinator populations (Baron et al.,  2017). There are many measures to ease the overwhelming cost burden upon farmers on account of farming and rising costs of cultivation. It pertains to the increased input subsidies made by various state and central governmentsthe fertilizer subsidy, the free supply of electricity for irrigation, the interest subvention on agricultural credit, and the premium subsidy for crop insurance. On the contrary, the recent trends show that 75% constitutes a higher number of electricity subsidies, reserved for agriculture consumers, from 2016-2019.

1. No Tillage (No Ploughing or Turning of the Soil)
• The principle of No Tillage in natural farming refers to the practice of avoiding the mechanical disturbance of the soil, such as ploughing, turning, or tilling. This approach is central to natural farming because it allows the soil to maintain its natural structure, preserves its biodiversity, and enhances its ability to support plant growth sustainably.
• Tillage disrupts the natural layers of the soil. When the soil is left undisturbed, its structure remains intact, allowing for better water infiltration, root penetration, and nutrient availability. A well-structured soil is more resilient to erosion and compaction.
• Soil is home to a vast network of microorganisms, including bacteria, fungi, and earthworms, that play crucial roles in nutrient cycling and plant health. Tilling can destroy these delicate ecosystems, reducing the soil’s fertility. No tillage preserves these beneficial organisms, promoting natural soil regeneration.
• In natural farming, organic matter (like dead plants, mulch, and crop residues) is left on the surface of the soil. As it decomposes, it contributes to the formation of humus, a rich organic material that improves soil fertility and helps retain moisture. Tillage disrupts this process, speeding up the decomposition of organic matter and reducing its long-termbenefits.
• No tillage improves the soil’s ability to absorb and retain water, which reduces the need for irrigation and helps crops withstand drought conditions. Additionally, undisturbed soil is more resistant to erosion because plant roots and soil structure act as a barrier against wind and water erosion.

Natural farming is about keeping the long-term health of the soil in mind. Soil health is an active state or condition in which soil functions as a vital living ecosystem, enhancing plant, animal, and human health. Healthy soil has a good balance of minerals, organic matter, and moisture. With life processes occurring constantly, it has many complementary internal resources that allow it to be less reliant on external inputs. Natural farming helps to build this soil health, so that many years down the line, soil is in good health without being weakened by prolonged input redundancy. Regular tillage, which turns the soil over and breaks up the mycorrhizal fungi that connect the plants, is unnecessary in natural farming. We do not till. When we encourage life in the soil, it produces better soil heading towards fertility. Feeding the soil is the goal of natural farming. Ensuring robust health in the soil will, in turn, produce healthy plants, and by extension, a nutritious offering of produce. Soil health is a critical factor for natural farming. In every action we take to improve the health of the soil, we are addressing a component of healthy farming and being kind to the land. Soil health is the foundation of natural farming. The following sections detail the importance of organic matter, the role of microorganisms, water conservation, and preparation of natural inputs. By understanding these facts, we can truly understand soil health. Commercial inputs like pesticides, herbicides, and chemical fertilizers cost money. Natural farming aims to avoid the profit-zapping reliance on these costly inputs. Healthy soil produces hardy crops; strong plants do not get sick. Kept at their peak of health, strong, lifefilled soils have a congress of life in their root zones, providing steady food and balance to crops. There are no external inputs constantly taxing the health of these crops. By tending to the farm as a living system, soils and plants are helped to be as healthy as possible, of their own accord.

A. Beejamruit
Beejamrit is an organic solution primarily used in seed treatment to promote better germination, protect against soil-borne diseases, and enhance plant growth. It is part of traditional agricultural practices in India and is commonly used in organic farming. he preparation of Beejamrit involves simple, locally available ingredients like cow dung, cow urine, lime, water, and a handful of
soil (often sourced from under a banyan tree). The process is straightforward: cow dung is soaked in water overnight, and the mixture is later combined with lime, cow urine, and soil to create the final solution. This solution is then used to coat seeds before planting, providing them with a protective layer that boosts germination and shields them from pathogens. Beejamrit is valued for its low cost and quick preparation compared to chemical treatments. It is rich in beneficial microorganisms that help improve soil health and support plant growth.
The preparation of Beejamrit, a traditional organic solution used for seed treatment, is simple and involves locally available ingredients. Here’s the  process:

Weed management in natural farming emphasizes natural, chemical-free methods that align with ecological principles. Instead of using herbicides or synthetic chemicals, natural farming promotes approaches that maintain biodiversity, improve soil health, and reduce weed pressure through various cultural, mechanical, and biological methods.
Here are key strategies for weed management in natural farming:
1. Mulching
Mulching is an agricultural and horticultural practice in which organic or inorganic materials are spread over the soil surface to protect and improve soil quality. In natural farming, mulching plays a key role by fostering a healthier ecosystem for plants without synthetic inputs.
Types of Mulch
Mulches are broadly categorized into organic and inorganic types:
• Organic mulch includes materials such as straw, leaves, grass clippings, crop residues, compost, wood chips, and sawdust. These materials decompose over time, enriching the soil with organic matter and nutrients.
• Inorganic mulch consists of materials like plastic sheeting, landscape fabric, and gravel. While these do not decompose, they effectively suppress weeds and retain moisture but do not improve soil fertility.

The crop production has been found to make wide use of chemicals with hundreds of newly imported molecules. Unnecessary and excessive use of inorganic chemicals have led to an upsurge in the ecosystem and imbalance of nature. Natural enemies and bees get destroyed with chemical pesticides. Other side effects include resurgence of target pests and outbreak of secondary pests. Moreover, the residues of the pesticides in food products and environment have caused grave health issues. The contamination of pesticides into the fruits causes a quality decrease of the fruits, which is widely reported. The best available solution for sustainable agriculture can be the non-chemical organic/ natural farming that does not permit the usage of inorganic and synthetic chemicals for crop cultivation. Natural farming is the ecology-based production management system promoting and It provides biodiversity, biological cycles, and soil biological activity. The basic principles of organic/natural farming are materials and practices that enhance the ecological balance of natural systems that integrate parts of the farming system into the ecosystem. The first purpose of natural farming is to improve the health and productivity of interdependent communities of soil life, plants, animals, and people, that is termed as ‘one health concept’.
Natural farming is a system in which laws of nature are applied to agricultural practices. It has an advantage of natural biodiversity on every area of farmed resources; it also fosters the intricacy of living organisms, plant and animal alike, which would form each specific ecosystem to grow in harmony with food crops. Insects are indeed very mobile and well adapted to farm production systems as well as pest control tactics. Organic/natural farms focus on management, not eradication, of these insects. Thus, success in organic/natural farms depends on learning the biological, ecological, and behavioural information of the insects. The biological information as to what the insect needs to survive can be used to determine if insect pests can be deprived of some vital resource. Ecological information can be used to inform how the insect interacts with the environment and other species. shape an environment resistant to pests.

shrubs with crops and livestock in ways that create diverse, productive, and sustainable land-use systems. In natural farming, where minimal chemical inputs are used, agroforestry offers numerous environmental and economic benefits, making it a valuable approach for sustainable agriculture.
1. Soil Health and Fertility
Soil health and fertility are the cornerstones of any sustainable agricultural system, particularly in natural farming, where synthetic inputs are minimized or avoided altogether. Agroforestry, an agricultural practice that integrates trees and shrubs into farming systems, plays a key role in maintaining and enhancing soil health and fertility through natural processes. Here’s how agroforestry significantly improves soil conditions and sustains fertility over time. One of the primary ways agroforestry enhances soil fertility is through nutrient cycling. Trees and shrubs shed leaves, twigs, and other organic matter onto the soil surface, forming a layer of mulch. As this organic matter decomposes, it releases essential nutrients such as nitrogen, phosphorus, and potassium back into the soil, which are then available for uptake by crops. This process mimics the natural nutrient recycling seen in forests, reducing the need for chemical fertilizers and supporting the goal of low-input natural farming. Some tree species used in agroforestry are nitrogen-fixing, such as certain types of legumes like Gliricidia and Leucaena. These trees form symbiotic relationships with nitrogen-fixing bacteria in their root nodules, converting atmospheric nitrogen into forms that plants can use. As a result, these trees contribute nitrogen directly to the soil, boosting its fertility and helping to meet the nitrogen needs of companion crops without synthetic fertilizers. Agroforestry improves soil  structure by encouraging the formation of stable soil aggregates.

When a plant is unable to perform its functions normally, then it is diseased. The two major causes of disease in crops and trees are pathogens and environmental conditions. There are many kinds of disease pathogens: viruses, bacteria, fungi, nematodes, mycoplasma-like organisms, and parasitic higher plants. Fungal pathogens are the most common type. They cause seed rots, seedling damping-off, root rots, foliage diseases, cankers, vascular wilts, diebacks, galls and tumors, trunk rots, and decay of aging trees. Deterrents to establishment include unfavourable weather and environmental conditions such as Temperature and moisture extremes, high winds and ice may directly injure a tree and predispose the trees to pest attack.
Biodiversity plays multiple roles in development as well as ecological sustainability. It has received increased attention in agricultural ecosystems for the past few years regarding the reduction of plant diseases; however, the knowledge of using biodiversity to manage plant diseases is Still incomplete. For crop diversification, the interaction of genetic diversity per se in host populations with identifiable resistance and other functional traits of component genotypes to mitigate disease epidemics is not well understood, and neither is the best way of structuring mixed populations. The mixing of crop varieties can significantly reduce disease epidemics in the field. To achieve the best disease mitigation, growers should include as many varieties as possible in mixtures or, if only two component mixtures are possible. The many strategies, tactics, and techniques used in disease management can be grouped under very broad principles of action. The differences between these principles are often not clear. The simplest system consists of two principles, prevention (prophylaxis in some early writings) and therapy (treatment or cure). The first principle (prevention) has to do with disease management practices applied before infection-that is, the plant is protected from disease.

Abstract
India, with 70% of its population reliant on agriculture, faces a challenge in rural development due to a modest 3.64% agricultural growth rate against a target of 4%, lagging behind the 7-8% growth in manufacturing and services. This disparity leaves rural communities unable to fully benefit from national economic progress. Promoting agripreneurship is a vital strategy to harness rural resources, enhance livelihoods, and achieve balanced economic development. Opportunities abound in agricultural inputs, farming technologies, output processing, and allied sectors like dairy, poultry, horticulture, and sericulture. However, challenges such as limited awareness, weak entrepreneurial culture, poor infrastructure, and insufficient government focus hinder progress. Strategic interventions in these areas can unlock the potential for sustainable rural growth and economic inclusivity.
Keywords: Agripreneurship, Rural Development, Agriculture, Economic Growth, Farming Technologies, Agricultural Inputs, Dairy Development, Horticulture, Infrastructure Challenges, Sustainable Development
 

Abstract
Rural women in India play a pivotal role in economic development, particularly through their significant contributions to dairy farming, a key enterprise in rural economies. Despite their extensive involvement in dairy activities such as fodder collection, milking, and animal care, their labour often remains non-monetized, limiting economic empowerment. Dairy farming, bolstered by initiatives like Operation Flood, has made India the world’s largest milk producer, offering profitable opportunities for rural women. Entrepreneurship in dairy farming can economically empower women, granting them decision-making autonomy and social recognition. Government schemes, NGOs, and institutions like KVKs facilitate this through training, formation of Women Dairy Cooperatives, and Self-Help Groups. Success stories from Chittoor, Jajpur, and Valsad highlight women leveraging dairy enterprises for financial independence and community inspiration. Promoting women’s entrepreneurship in dairy farming through skill development and market access is crucial for their socio-economic upliftment.
Keywords: Rural Women, Dairy Farming, Entrepreneurship, Economic Empowerment, Women Dairy Cooperatives, Self-Help Groups, Operation Flood, Socio-Economic Development, Milk Production, Skill Development

Abstract
The global population is projected to reach 9 billion by 2050, with rural youth (aged 15–34) in developing countries of Africa and Asia facing significant challenges like unemployment, poverty, and limited access to resources such as land, credit, and education. Despite agriculture's potential to provide livelihoods and contribute to 32% of global employment, rural youth are increasingly disengaged, perceiving farming as unattractive due to its image of drudgery and lack of profitability. Agri-preneurship, blending agriculture with entrepreneurial skills, offers a solution by fostering innovative, profitable farm businesses. Initiatives like India’s ARYA program and private efforts such as the Green Shoots Foundation promote skill development, encouraging youth to pursue agriculture through training, microfinance, and market linkages. Empowering rural youth with entrepreneurial competencies can enhance food security, reduce rural outmigration, and support sustainable development.
Keywords: Agri-preneurship, Rural Youth, Agriculture, Skill Development, Food Security, Sustainable Development, Rural Outmigration, Entrepreneurial Competencies, Employment, Market Linkagesk

Introduction
Crop production is weather dependent and almost every crop has been affected by the changing climate. The favourable weather may result bumper production sometimes or even complete destruction of crop may take place under severe weather aberrations. The number of events of sudden aberrations is increasing in a cropping period with the gradual climate change in the recent past. It has been recorded too severe in case of perennial crops. Ready to harvest crops have several times been completely destroyed due to thunderstorm or cyclone in coastal regions or even in main land. Thus, Indian agriculture is being impacted by the climatic changes, and its affect is very much visible now (Aggarwal, 2008). Horticulture sector is not escaped from its’ ill affect and new challenges are coming for production (Singh et al., 2021). The role of adaptation strategy has now been felt crucial (Babu et al., 2021; Banerjee et al., 2022) and importance of agro advisory not only protects the crops from such types of risks but also provide guidance to farmers about the right time for activities in crop husbandry (Adak et al., 2018). Issuance for improving water productivity in water limited areas (Adak and Babu, 2024), micronutrient management for nutrient richness and enhanced yield (Adak et al., 2023; Shukla et al., 2020), rejuvenating unproductive orchards (Shukla et al., 2021; Mishra et al., 2007), disease (Misra et al., 2013; Shukla et al., 2015, 2019, 2020, 2021a,b; 2022; Kumari et al., 2021) and insect pest (Gundappa et al., 2016; 2018) management are becoming very crucial and essential for the benefit of growers.

Introduction
World population is increasing and currently stands at 8.2 Billion as on 2025. Food security of population of any country is becoming a challenging task and the entire population depends on the available national resources. The importance of scientific community in securing foods for everybody was felt necessary and it was expressed that there is a huge herculean task to ensure food for everybody. Farming community and fruit growers across the globe were engaged in serious efforts to produce fruits of good quality. The necessity to develop advanced technologies for nutritious foods was thus given national importance not only for food security but also of nutritional security. The sincere scientific efforts to develop recent innovative technologies to support fruit production even at harsh soils and environmental conditions are praiseworthy. Farmers, stakeholders, policy planners and technology developers have been devoted to achieve the target of Sustainable Developmental Goals. The target of United Nation’s 2030 to eradicate poverty and eradication of malnutrition should be achieved sustainably. People across nations are working devotedly to achieve the target. However, climatic changes have been significantlyaffecting the food production to food security across nations. Decadal information suggested the adverse impact of climates on the fruit production. Recent changes in weather extremisms had also affect harshly on the food production to supply chain. Thus, the role of scientific community to coup up the environmental hazards and to sustain fruit production becomes a reality. In this context, agroadvisory services plays significant role to support farming community and fruit growers to adopt time bound managemental practices. The ultimate aim of these services is to improve the orchard soil and tree health condition, enhance factor productivity vis-à-vis profitability and precise use of available natural resources. Quantification of variability in environmental indicators, soil and tree interactions were felt necessary for formulating effective policy plan (Malhotra, 2017). Adak et al. (2022) advocated for foliage spraying of 1 per cent zinc sulphate on mango cv. Dashehari to enhance yield and nutrient richness in fruit pulp.

Introduction
Mango (Mangiferaindica L) known as “the king of fruits” and “Apple of the Tropics” is most popular fruit in the tropics and sub-tropics. It moved from India to different countries and has gained popularity around the world. It has long been associated with the Indian culture and religious functions. Among different states, Uttar Pradesh and Andhra Pradesh constitute 23.64 per cent and 22.99 per cent share in the total mango, respectively, in the country. In 2023, Mango production had a total export volume of 78.56 billion MT. India is the biggest mango producer with a total production volume of 25 million MT of mangoes during the year. The top 10 mango producers in 2023 include India (25 million MT), China (3.8 million MT), Indonesia (3.6 million MT), Pakistan (2.7 million MT), Mexico (2.4 million MT), Brazil (2.1 million tons), Malawi (1.7 million MT), Thailand (1.6 million MT), Bangladesh (1.5 million MT) and Vietnam (1.4 million MT). As regards world-wide mango exports, Mexico is the biggest mango exporter with total exports worth $576.36 million in 2023. It was noted that Mexico’s mango exports increased by 5.09% from the previous year. The top 10 mango exporting countries in 2023 include the following:

The low productivity in guava because of traditional planting distance (6-7 m apart) with no canopy management practices. Guava under traditional and high density planting system, though it gives high yield during initial stage but as the tree advances in age light interception and aeration decreases inside the canopy due to shading and overcrowding, resulting low yields and poor quality. In order to develop efficient canopy architecture for HDP and traditional planting system, the ICAR-CISH has standardized training system and canopy management with objective to have sustained high yield and quality of guava.
Guava bears flower on current shoots produced on mature wood laterally or terminally. In general flowers are produced in the leaf axils in 1 or 2-3 in cluster. The crop load depend on number of new shoots, hence more new shoots resulting more fruiting surface area.
High Density Planting System
Accommodation of more plants per unit area is known as high density planting system. Since guava respond well to pruning and fruiting starts 40-50 days after pruning and more new shoots emerged on which more flowers and fruits appears, thus yield increased. For successful HDP suitable canopy shape and its management is prerequisite. Guava is usually planted 6-7 m distance accommodating 277 to 204 plants per hectare the yield vary 35-80 kg/tree with yield per hectare 15-12 t/ha. In traditional planting density usually fruiting takes place on high on the tree.

Introduction
Mangoes (Mangifera Indica L.), often referred to as the “king of fruits,” are celebrated for their rich flavour, nutritional value, and versatility in culinary applications (Swaroop et al., 2018). Globally, mangoes hold a significant economic and cultural position. Mangoes are grown in over 90 countries, with India, China, and Thailand being leading producers. They contribute
significantly to the agricultural economies of these and other tropical and subtropical regions (Makarabbi, 2023). Mangoes are a major export commodity for many countries, generating substantial foreign exchange. For instance, India’s mango exports account for a sizable share of the global mango market, valued at millions of dollars annually. In many developing countries, mango farming supports millions of smallholder farmers, providing employment and a source of income (Thakor, 2019). Mangoes are enjoyed in numerous forms— fresh, dried, as juices, pickles, and chutneys. They are also a key ingredient in various traditional dishes and desserts across different cultures. Mangoes play a central role in several cultural festivals and rituals, symbolizing prosperityand good fortune in countries like India and the Philippines. Mangoes are rich in essential vitamins, minerals, and antioxidants, including vitamins A and C, folate, and fiber. Their consumption is associated with various health benefits, such as improved immunity, digestive health, and skin care (Yahia et al., 2023). While mangoes offer significant benefits, their cultivation faces several challenges, primarily due to pest infestations that can severely impact both yield and fruit quality. Effective management of these pests is crucial to ensure sustainable mango production (Singh and Baradevanal, 2021).

Among subtropical fruit crops mango, guava, bael and aonla are among the most important ones. The productivity of these crops is affected by many factors, among which diseases have their own economic significance. The crops use to suffer from a large number of diseases, however, economically important diseases having significance in agro-advisory are mentioned below.
Mango Wilt and Decline
The mango wilt disease caused by Ceratocystis fimbriata is one of the most devastating diseases (Shukla et al., 2015, 2018b, 2020; Shukla, 2020). Association of Berkeleomyces basicola and Lasidiplodia theobromae in wilt, decline and branch drying has also been observed. Symptoms: Ceratocystis infection on the trees causes dark staining of the affected wood, exudation of gum, leaf drying and ultimately death of the tree (Al Adawi et al., 2003; Shukla et al., 2018b). Later symptoms include vascular discolouration beneath the gummosis (Masood et al., 2008; Shukla et al., 2018b). The symptoms may appear in the form of sudden wilt, decline or branch drying and accordingly the whole tree or branch may die within a period of a fortnight to six months of appearance of first symptom.