Major Wild Tuber Crops of Simlipal Biosphere Reserve Forest, Orissa, India by Sanjeet Kumar

Sanjeet Kumar
Department of Botany
Ravenshaw University,Cuttack,India
Dioscorea puber Bl. Enum.
Common name(s) in SBR: Kukai Sanga, Chekka alu
Botanical name: Dioscorea puber Bl. Enum.
Family: Dioscoreaceae
Synonym (s): Dioscorea anguina Roxb.
Flowering: Sept to Nov.                                  Fruiting: Dec. to Jan.

Vernacular name (s)
Oriya – Kosa alu
Hindi- Desia alu 
Bengoli- Kasa alu

Botany
It is a bulbiferous climbing stout. Leaves pubscent, very broadly ovate-cordate or suborbicular, base cordate, costae 7, pubescent on the nerves beneath. Stem woody with right-twining, densely pubescent or tomentose. Bulbils axillary, greenish or brownish grey without conspicuous eyes. Male spikes less pubescent than female. Outer perianth broadly - oblong or ovate-oblong. Inner ovate, membranous. Stamens 6 perfect, small, adnate to the inner perianth-lobes. Ovary densely pubescent or tomentose. Capsule broadly subcordate, quite glabrous. Seed winged. Tubers are cylindrical or randomly winged form, covered with rootlets, mostly light yellow and inner parts are deep yellowish.

Distribution
It is common throughout Odisha. All forest divisions of Simlipal Biosphere Reserve forest particularly in Kasipani, Kolha, Gurguria, Ghatkumari. Very frequent in Bangriposi Ghati. Himalayan division, Nepal, Assam, Jharkhand, Bihar, Upper Gangetic plain, Myanmar, Malaysia.

Common use(s)
Tubers are edible mostly in off agricultural season among the tribal community of SBR. They have been eaten as an energy supplement. Many informants such as Sahu Bari, Jambira Bari (Sanoski village), Gunjeram Badra and Sarma alda (Kolha village) of Kolhoo tribal community, Charan Lohar (Ratuda village) of Lohar community  told us that this tuber is eaten once in morning than there is no need of other food till night. It indicate that it has some unknown ingredients has ability to give more energy, which could be future supplement food to eradicate malnutrition and food security crisis.

Medicinal value(s)
According to Budhi Ram Lohar, an herbal practicenr (Vedh) of Sanoski village of Gurgria range of SBR, tubers are eaten as tonic for health but not good in cough.

Phytochemicals constituent(s)s
Tubers are rich with Oxalic acid, Tannin and Saponnin.

Economic importance(s)
It is sold in weekly market (Haat) of SBR at the rate of Rs.  20 to Rs. 25 per kilogram.


Dioscorea bulbifera L.
Common name(s) in SBR: Pita aalu, Pita Kanda
Botanical name: Dioscorea bulbifera
Family: Dioscoreaceae
Synonym (s): D. sativa Thunb.; D. anthropophagum Chev.
Flowering: Aug. to Sept.                                             Fruiting: Nov. to Dec.
Vernacular name (s)
Oriya: Pita alu
English: Air potato
Hindi:  Pita Kanda
Hawaiian:  Ho 
Telgu: Nookala gadda 
Bengoli: Meta alu

Botany
Stem twining to the left, smooth, sometimes subalate; tuber not deep, usually single, subglobose, without defined stalk. Bulbils common, axillary, roundish, up to 3 cm across, warted. Leaves alternate, rarely opposite,suborbicular or broadly ovate, 5-25 × 3-20 cm, acuminate or caudate, 7-11-ribbed,with very distinct scalariform cross-nervules,usually deeply cordate,sinus usually very wide; petiole as long as or usually much shorter than the blade. Male flowers green or purplish, 1.5-2.5 mm long or more pendulous, in numerous long, very slender axillary and panicled spikes, 5.5-10 cm long ;bracts half to three-fourths as long as the flower with filiform acumen. Perianth-lobes linear, inner narrower than the outer. Stamens very small, 6 perfect, not one-fourth as long as the inner perianth. Female spikes slender, droop-ing, several fascicled at each axil. Perianth as in male. Capsule quadrately oblong, 1.5-2 × 1-1.2 cm, reflexed. Seeds partially winged.

Distribution
It is throughout in SBR and Odisha.Widely distributed in Asia and Africa and naturalized in the tropics and subtropics, including Central and South America. It is cultivated in East Africa to Polynesia.Kumaon region, Western Himalayas.

Common use(s)
The tubers and bulbils are edible as vegetables during off agricultural season (s). the tubers are acrid, but tribal community of SBR used it during famine after much preparation.

Medicinal value(s)
The aqueous extract of tubers is used against different types of skin infections among tribal group of SBR.

Phytochemicals constituent(s)
It contains a steroid Diosgenin, which is the principal constitute of Birth-control pills.

Economic Value(s)
It is not traded in SBR or peripheral area of SBR but the tribal people conserve it for famine and off agricultural season, therefore they exchange it for other local vegetables and crops.

Dioscorea oppositifolia L.
Common name(s) in SBR: Pani alu
Botanical name: Dioscorea oppositifolia L.
Family: Dioscoreaceae
Synonym (s)…
Flowering: Aug. to Sept.                                             Fruiting: Nov. to Dec.
Vernacular name (s):
Oriya – Pani alu
Chinise – Huai shan,
Japanese- Yamaimo,
Korean- ma,
Vietnam- khoi

Botany
It is a right twining climber. Stems often purple, swollen at the nodes, unarmed, fleshy below and ending a few inches below the surface in a very small stock and a fascicle of tubers, ends of shoots pubescent. Leaves green and shining both sides, oblong to broadly elliptic, all opposite, 3-5-nerved, margin thinly cartilaginous. Petiole half as long as blade or much less. Fruit capsule with depressed base.tubers proceeding direct from the fleshy end of the rootstock, several, with a narrow neck.

Distribution
It is found throughout SBR, frequent in Gurguria forest division, Orissa, China, Japan, Korea Vietnam.

Common use(s)
The tubers are eaten as vegetables, and this is most esteemed tuber among the tribal community of SBR. Tuber (s) is used as herbal tonic.

Medicinal value(s)
Tuber (s) stimulates the stomach and spleen. Tuber (s) is eaten for the treatment of poor appetite, asthma and cough. It has anti-ulcer activity (Rani et al., 2010). The leaves, flowers, tender shoots. are used for cooling and demulcent. Leaf paste is used to cure leprosy.The leaves are antiseptic; the paste is applied on ulcers and abscesses. The whole plant is used in application for oedematous tumours and the ash extract of flowering twigs along with tender leaves cure cancer. The whole plant extract is used for secondary syphilis and Psorasis.

Phytochemicals constituent(s)
Tuber (s) has different type of bioactive compounds such as steroids, triterpene, sugar, tannin and amino acid. Felex et al., 2009 reported in Methanol extracts shows the presence of sugar, alkaloid, phenolic group, flavone, catachin, tannin and amino acid and Benzene and chloroform extracts show the presence of steroid, sugar and steroid, triterpene, sugar respectively. In distilled water extract shows the presence of steroid, triterpene, sugar and tannin.

Economic Value(s)
 It is traded at the rate of 6 to 15 rupee (s) per kilogram (Weekly Haat of Nahana in SBR)

Dioscorea pentaphylla L.
Common name(s) in SBR: Biom-Sanga, Panja Sanga
Botanical name: Dioscorea pentaphylla L.
Family: Dioscoreaceae
Synonym(s): Dioscorea
Flowering: Aug. to Sept.                                             Fruiting: Nov. to Dec.
Vernacular name (s)
Oriya – Kanta alu
Marathi- Chai
Kumaon – Takuli
Rajasthani- Kanta alu
Hawaiian- Pia
Telgu-Yeleru tiga

Botany
It is left twining much more slender climber, more or less prickly below. 3-5 foliolate leaves. Leaves are glabrous or pubescent beneath. Leaflets of lower leaves rarely larger, centre ones obovate or elliptic or acuminate. Costae -1, lateral leaflets sometimes 3-costate, but the lateral costae from the midrib. Capsule large oblong. Elongate obpyriform bulbils. Tubers are oblong or clavate, proceeding direct from the base of the aerial stem and thickening downwards.

Distribution
Throughout SBR, Frequent in Ghatkumari range, Odisha,Deccan, Western Himalayas, Rajasthan, Nasik, Hawaiian,

Common use(s)
Sliced tuber are soaked in running water, and used as a common vegetable in SBR. It is most important tuber crops used in famine. It is frequently present in Kasipani (22º 04’ 13” N, 86º 18’ 25” E) of Bisoi range of SBR

Medicinal value(s)
Leaves are used for poor appetite.It is also helpful in case of indigestion. Tubers have anti-fungal and anti-bacterial activity (Prakash and Hosetti, 2010).

Phytochemicals constituent(s)

Differenet types of alkaloids and tannins. Prakash and Hosetti , 2010 reported that in tuber extract indicate presence of phenols/polyphenols, flavonoids, terpenoids, tannins, alkaloids and saponins.Maridsaa,2010 reported that saponins were invariably present in all the solvent extracts.

Economic Value(s)
Exchange with other cereals or crops due to its high yielding capacity. Tribal people of Ghatkumari are exchange it with vegetables.



Dioscorea wallichii Hook.f.
Common name(s): Suta-alu, Meramtua-sanga
Botanical name: Dioscorea wallichii Hook.f.
Family: Dioscoreaceae
Synonym(s): D.aculeata L.
Flowering: Aug. to Sept.                                             Fruiting: Nov. to Dec.
Vernacular name (s)
Oriya – Suta-alu,
Myanmar: Kadat,
China: ying jiang shu yu
Sakai : Yarex

Botany
It is a right twining climber. Stems very stout and woody, often throny below and characterized by the hard thick bases of the articulate petioles which are also frequently thorny. Leaves all alternate or some opposite, rather coriaceous and shiny or dull, large, suborbicular or broadly ovate with a large broad basal sinus, usually cuspidate or caudate, nerves between the costae rarely somewhat scalariform, petiole long. Capsules have obconic base, depressed at the apex. Seeds are winged all round. Tubers attached directly to the base of the stem without the intervention of long fibers or roots.

Distribution
It is throughout SBR, Odisha,Myanmar, Bangladesh, India, Malaysia. Thailand,China

Common use(s)
Tubers are eaten during July to October after large number of successive boiling to remove acrid principle.

Medicinal value(s)
The tubers are used to treat stomach pain and used as herbal health tonic among Mankidias tribal group of SBR.

Phytochemicals constituent(s)
Different types of Polyphenols and saponnin are presents with calcium oxalate in tubers.

Economic Value(s)
It is traded at the rate of 4 to 10 rupee (s) per kilogram

Dioscorea glabra Roxb.
Common name(s) in SBR: Konta-alu
Botanical name: Dioscorea glabra Roxb.
Family: Dioscoreaceae
Synonym(s): D.nummularia Lamk.
Flowering: Sept.- Nov                                     Fruiting: Nov.- March.
Vernacular name (s):
Oriya : Konta alu
Kolho: Piska Sanga
Sakai: Luntak
Botany
Stem twining to the right, quite glabrous,often with numerous prickles,sometimes quite unarmed;swollen at the nodes and with swollen petiole-bases(but these are not much hardened and aculeate as in D.wallichii) rhizomes woody superficial from which proceed long,stout,fleshy fibres ending in  tubers;tubers more or less cylindric. 12.5-30(75) × 2.5-(7.5) cm. leaves opposite or lower alternate,variously shaped,commonly ovate,ovate-oblong,ovate-hastate,sometimes suborbicular,glabrous, glaucousbeneath,5-9-ribbed,secondary nerve not scalariform between the costae , base cordate,those towards the inflorescence with base straight,rounded,sagittate or truncate-subcordate;petiole from half as long as to as the blade. Male spikes dense or lax, 1.2-3.2 cm long,opposite or finally whorled on axillary rachises, 2.5-8.7 cm long or in long terminal more or less leafless panicles;rachis always quite glabrous;bracts lanceolate , acuminate , about half as long as the perianth,base not decurrent on rachis;bracteole much shorter than the bract. Buds somewhat oblong-globose,with very broad, often pulvinate base. Flowers yellowish, subglobose or oblong, 1.5 mm long. Outer perianth-lobes ovate-oblong,obtuse,gibbous at the base,inner obovate or oblanceolate,very thick.stamens 6 perfect. Pistillode very minute. Flowers rachis quite glabrous . perianth quite sessile on ovary, 1 mm long. Capsules glabrous,subquadrate or obcordate,1.5-2.2 cm long and 2.5-3.7 cm wide,depressed at apex,with short stout beak. Seeds winged all round.
Distribution
Fairly common in open forests. South of Ganges in the moister parts, the Himalayas from China, Nepal eastwards, the plains of Bengal and Assam; Bihar. SE. Asia.
Common use(s)
The tubers are largely eaten by tribal community at Barhaipani, Ghatkumari and Kasipani.
Medicinal value(s)
The leaves are used against different types of skin infections.

Phytochemicals constituent(s)
Different types of Polyphenols and saponnin.

Economic Value(s)
It is traded at the rate of 2 to 5 rupee (s) per kilogram
Dioscorea hamiltonii Hook.
Common name(s) in SBR: Suta alu, Tarenga
Botanical name: Dioscorea hamiltonii Hook.
Family: Dioscoreaceae
Synonyms: Dioscorea
Flowering: Sept- Oct                           Fruiting: Dec.- Feb.
Vernacular name (s)
Oriya- Suta alu
Santhal of SBR- Piska  sanga
Munda- Burujharia

Botany
Stem twining to the right,reddish when dry,angled, sometimes subacute, unarmed and often twisted;tubers long-stalked, deep under ground. Bulbils 0. Leaves closely resembling those of D.belophylla but less blue green and when dry the cross nervules are less scalariform,opposite or subopposit,ovate, lanceolate or ovate-lanceolate,base cordate,subcordate-truncate or sagittate,9-18 × 5-11 cm, acuminate, 7-9-nerved with 5 nerves reaching the apex and decurrent on petiole,secondary nerves close,rather regular and subparallel, upper leaves smaller and narrower;petiole 2.5-6.2 cm long. Male spikes short, 1-4-nate or  subverticillate on slender axillary branchlets, 1.2-2.2 cm long,with markedly zigzag rachis with a flower at each angle. Flowers yellow, 1.2 mm long;buds globose. Outer perianth-lobes ovate-oblong, rounded,concave,obscurely keeled, inner smaller,oblong,not thick. Stamens about as long, 6 perfect. Female spikes axillary, 3.7-22.2 cm long. Flowers much larger than in D.belophulla. Outer perianth-lobes very thick,crescentic,concave inside and with a very thick keel outside,attaining 2.5 mm length, inner lobes thick,oblong,only half to three-fourths as long. Capsule glabrous, 2- 2.8 × 2.5-4 cm, retuse, wings distinctly margined. Seeds winged all round.
Distribution
Similiphar, frequent in forests: Batipathar, Gandhmardan, NE. India. Laos, Tenasserim.

Common use(s)
The tubers are very testy and used as vegetables and desserts.

Medicinal value(s)
Tubers are good for health due to presence of antioxidant compounds and used as health tonic.

Phytochemicals constituent(s)
Different types of Polyphenols and saponnin.

Economic Value(s)
It is traded at the rate of 7 to 10 rupee (s) per kilogram
Dioscorea hispida Dennst.
Common name(s) in SBR: Bainya alu, Banya alu
Botanical name: Dioscorea hispida Dennst.
Family: Dioscoreaceae
Synonym(s): Dioscorea daemona Roxb, D. mollissima Blume.
Flowering: Aug. to Sept.                                             Fruiting: Nov. to Dec.
Vernacular name(s)
English: Asiatic Bitter Yam                             
Malaysian: Ubi Gadong
Bengoli- Ban alu
Burmese- Kywe
Thailand : Kloi

Botany
It is as strong climbing plant with glaborous leaves ;stem twining to the left, with few small, weak prickles young  tomentose;tubers subglobose or irregular., covered with root-fibers. Leaves 3-foliolate; petiole 5-30 cm, sometimes prickly, glabrous or finely pubescent; the central one elliptic or obovate,caudate-acuminate, 3-5-costate, more or less permanently pubescent on the nerves, base tapering, those on the flowering branches small with rounded, suddenly apiculate apex, lateral leaflets very oblique, sometimes shortly 2-lobed,sometimes gibbous and broader than long;petiolule 2.5-18 mm long. Male flowers in very dense,short,oblong or cylindric spikes, 6.2-7.5 mm long, in long,narrow,axillary,pubescent panicles, 15-20 cm long; rachis pubescent or villous, more or less prickly; bracts under the flowers very small, orbicular with broad base, 1.2-1.5 mm diam.,concave,pubescent. Inner perianth lobes oblong-obovate,incurved,1-1.2 mm long and about twice as long as the rounded membranous outer perianth-lobes.Anther 6 perfect, minute,globose-oblong;filaments hardly any . Female spikes usually 2-nate, simple, pubescent or tomentose, 20-30 cm long; bracts lanceolate, 2.5-3 cm long. Ovary oblong, 3.7 mm, tomentose. Capsule quadrately oblong, 3.7-5 × 1.8- 2.5 cm, ends truncately rounded, smooth. Seeds winged at the base only.
Distribution
It grows under shaded areas or near streams. Throughout the SBR, India, Malaysia,

Common use(s)
Tubers are nauseous even after boiling but often said to be edible after boiling and repeated washing. It serves as a fasten food for a tribal community of SBR and millions of people in tropical and subtropical countries (Udensi, 2008).

Medicinal value(s)
Tubers are used to birth-control among women.

Phytochemicals constituent(s)
Different types of Polyphenols and saponnin. Tubers contain dioscorine a lactonic alkaloids which is used to manufacture birth-control pills.

Economic Value(s)
It is not traded among the tribal community.
Amorphophallus campanulatus Blume.
Common name(s) in SBR: Ola, Ban Ola
Botanical name: Amorphophallus campanulatus  Blume.
Family: Araceae
Synonym(s): A.Paeoniifolius Nicolson.
Flowering: April. To June.                                          Fruiting: Nov. to Dec.
Vernacular name(s):
Oriya: Oluo
Hindi: Suran
Rajasthan: Jamikand
English: Elephant foot yam
Tamil: Senai kizhangu
Kannada: Suvarna gedde
Malayalam: Chena
Botany
It is a aroid, stout herb. Leaves 3-partite with the lateral segments 2-furcate, pinnatifid with oblong lobes.petiole long mottled dark and light green, very stout, rough with small tubercles. Peduncle much shorter than the spathe. Spathe with a campanulate tube suddenly widening into an irregular spreading plicate and undulate recurved limb. Spadix very stout. Male inflorescence subturbinate. Fruit red obovoid berries with 2-3 seeds. Tubers depressed hemispherical with diameter 6 to 15 inch.

Distribution
Throughout SBR.In India it is grown mostly in West Bengal, Kerala, Andhra Pradesh, Maharashtra and Orissa,Philippines, Malaysia, Indonesia and other South-East Asian Countries.

Common use(s)
The tuber(s) is eaten as vegetables and very popular in south part of SBR. It is good for liver; therefore they use it as liver tonic.

Medicinal values
It is used in gastric troubles and in rheumatic pain; tubers are used to treat piles. It is reported to have anti-inflammatory, anti-protease and anthelmintic activity.

Phytochemicals constituents
Dey and Ghosh, 2010, reported, the tubers have rich quantity of Alkaloids and steroids.

Economic Values
The cultivated tuber of this species is traded in peripheral area of SBR and the tribal people of SBR are utilizing it.

Amarphophallus bulbifera (Roxb.)
Common name(s) in SBR: Amla-bela
Botanical name: Amorphophallus bulbifera  Roxb.
Family: Araceae
Synonym(s): Arum bulbiferum Roxb.
Flowering: May to July.                                             

Vernacular name(s):
Oriya:
English: Devil’s Tongue
Bengoli: Dadunga
Tripuri: Ul Hugo
Jainta: Jaihynrew
Bangla Desh: Chung Muru

Botany
It is a stout herb. Leaves usually with a large bulbil above the petiole at the fork, leaflets obovate or lanceolate. Peduncle mottled.  Spate erect, ovate-cymbiform, greenish or yellowish mottled pink without, pink or salmon deepening to scarlet. Spadix long, female portion scarlet, style very short. Broad tubers having diameter 6- 12 cm.
Distribution
Throughout SBR, Odisha, Bengal, Sikkim, Tripura Khasia Hills, Bihar, Jharkhand, Bangladesh, Myanmar.

Common use(s)
Fresh petiole, bulbils and tubers are edible among the tribal community of SBR.

Medicinal values
Bulbils and rhizome is used as vegetables against muscular rheumatism and joint pain. It is used as antidote in animal bite.

Phytochemicals constituents
Different types of poly phenols and Alkaloids are present in the tubers.

Remusatia vivipara Schott.
Common name(s) in SBR:
Botanical name: Amorphophallus campanulatus  Blume.
Family: Araceae
Synonym(s): Arum viviparum Roxb.
                                               
Vernacular name(s):
Oriya:
Marathi: Lalkand
Australia- Hitchhiker Elephant Ear
China: Yan Yu
Bengoli: Banj ka pindalu

Botany
It is a commonly known as Hitchhiker Elephant Ear. Leaves broadly ovate, usually solitary but sometimes 2, cordate with rounded lobes at base, obtuse and shortly acuminate, distinctly peltate; lamina ca. 20 cm long with a 15-25 cm long petiole, erect. Bulbiferous shoots at first stole like, ultimately erect or inclined and bearing clusters of scaly bulbils, scales with hooked awns. It  has erect, simple stolons and the inflorescence appearing before the leaf. Spathe 7-11 cm long; tube ovoid, 2-4 cm long and strongly constricted above; blade subcircular, 6-8 cm long, cream coloured, reflexed. Spadix 3-4.5 cm long; basal female region ca. 2 cm long; middle sterile region ca. 1-1.1 cm long and the upper male region 1-1.2 cm long, club-shaped, without sterile tip.

Distribution
It extends from Africa, Madagascar, south-eastern Arabian Peninsula, and the Himalaya to southern China, and tropical Asia to Malaysia, northern Australia, and the Pacific islands. Northern Queensland and the Northern Territory. Usually occurs in primary or secondary rainforest on rocks or trees, or as a terrestrial. Altitudinal range recorded from 50 to 400 m.

Common use(s)
Tubers are edible as vegetables. It has high amount of antioxidant components. The tubers of are used to treat mastitis, traumatic injuries, abscesses, and swellings

Medicinal value(s)
It is found throughout in hilly regions and used in folk medicine to treat whooping cough and used for wound to dispel any worms and germs.  Leaves are used as folk medicine for treating inflammation and arthritis. Leaves were used as analgesic, on the wound to dispel any worms and germs, for disinfecting genitourinary tract and for promoting conception(Bhurat et al.,2011).

Phytochemicals constituent(s)
Tubers are rich in Lactin.This plant will be a good candidature in a Neurological treatment. It also has analgesic and anti-inflammatory effect. It belongs to the "monocot mannose-binding" lectin family, which consists of proteins of high sequence and structural similarity

Pueraria tuberosa DC.
Common name(s) in SBR: Bhui Kokharu
Botanical name:Pueraria tuberose DC.
Family: Fabaceae
Synonym(s):
Flowering: Feb. to April                                              Fruiting: May to June.
Vernacular name(s):
Santhal:Patal Kokharu
Oriya:Bhui Kokharu
Hindi:Ban Kohda, Vidarikanda
Bengoli:Handiphuta
English: Indian Kudzu
Marathi: Bhui Kohla
Telgu : Nela Gumadi
Botany
It is very large woody climber with tuberculated stem, flowering when leafless and then very handsome. Leaflet large, roundish or, more usually, the terminal one rhomboid longer than broad and the lateral very obliquely ovate, easily recognized from other similar woody climbers in the biosphere. Flower bisexual, blue-purple ternate on the nodes of racemes. Calyx purple or green, silky. Stamens usually diadelphous. The fruit pods are linear, about 2–5 cm (0.79–2.0 in) long and constricted densely between the seeds. They have silky, bristly reddish-brown hair. Seeds vary from 3 to 6 in number. Tubers attached to the base of the stem by stout lateral roots and again ending in roots, globose or pot-like, about 28 cm across and the insides are white, starchy and mildly sweet. The tubers sometimes attain an enormous size.
Distribution
It is native to India.Throughout SBR, but very rare, most frequently in Kasipani division, Odisha, Jharkhand, Bihar, Nepal, Pakistan.
Common use(s)
Tubers are used as vegetables. It is used as strong herbal tonic.
Medicinal value(s)
Fruit is used as appetizer among the tribal community. Tanwar et al., 2008 reported the hypolipidemic effects of the tuber. In Ayurveda system the flowers are used as cooling agent and as aphrodisiac, while roots act as a demulcent and refrigerant in fevers. The root tuber is sweet, oily, cooling, tonic, and effectively used in aphrodisiac, galacatagogue and diuretic. It is also used to cure leprosy, diseases of blood and urinary discharges. It is employed as an emetic, tonic and also believed to be a lactagogue (Kirtikar and Basu, 1933). the root tuber is applied for blood purification and to improve sperm production. The shade dried root powder controls overgrowth in stomach. The consumption of raw root for one month leads to sterilization in women (Venkata Ratnam, 2006).
Phytochemicals constituent(s)
Isoflavonoids such as puerarin, daidzein, tuberosin, genistein and genistin are present in the tubers.

Economic Value(s)
Kudzu is facing extinction in the wild because of herb hunters who trade the tubers illegally to agents of pharmaceutical or Ayurvedic companies. In the black market, the red variety kudzu tuber of about 10 kg is believed to be very expensive ranging up to lakhs of rupees. The tubers are not disturbed from the plant, but the agents draw the juice of the tuber using syringes.
Solena amplexicaulis Lam

Common name(s) in SBR: Ban Kundri, Makrila
Botanical name. Solena amplexicaulis Lam
Family: Cucurbitaceae
Synonym(s): Melothria heterophylla Lour, Zehneria umbellate Thw.
Flowering: April-Oct                                       Fruiting: May to Jan.

Vernacular name(s):
Oriya: Ban Kundri
Kolho: Karakia
Sanskrit:Chengor
Bengoli: Ban Kundri

Botany
Prostrate or climber herb; stem angled, smooth; root tuberous. Leaves polymorphic, ovate,3-5-angled or lobed, cordate, hastate or sagitate at base , denticulate, usually 5-nerved and pale beneath ,upper surface punctate, rough or hispid; petiole short, sometimes pubescent; tendril simple. Male flowers; Articulate, Calyx tube-greenish. Corolla compaunulate, white; petals5, small, triangular. Stamens 3, inserted at the base of calyx-tube; connective papillose on the top. Female flowers: solitary, short-peduncled from the same axil as the males. Ovary narrow. Fruit ellipsoid, scarlet with red pulp, apically beaked, smooth; fruiting peduncles stout. Seeds 12- 20, ellipsoid, slightly compressed, white, and smooth, sometimes with a corrugated margin. Tubers are mostly fusiform.
Distribution
Common in hedges, thickets and also in forests.Throughout India. Sri Lanka, Myanmar, Afghanistan, Indo-China, SW, China, Taiwan, Malesia, Australia.
Common use(s)
Tubers are edible due to sweetness taste. Tender leaves are edible in Kasipani range of SBR.

Medicinal value(s)
The tubers, leaves and seeds of the plant are extensively used in traditional system for various ailments like hepatosplenomegaly, spermatorrhoea, thermogenic, appetizer, cardiotonic, diuretics, haemorrhoids and invigorating . Tubers have hepatoprotective effect. Solena amplexicaulis used to treat gonorrhea, dyspepsia, asthma, constipation and spermatorrhea. The leaves of solena amplexicaulis have good anti-inflammatory activity.

Phytochemicals constituent(s)
β-sitosterol and different types of anti-oxidant compounds.

Lasia spinosa Thwaites.
Common name(s) in SBR: Kanta Saru
Botanical name: Lasia spinosa Thwaites.
Family: Araceae
Synonym(s): Dracontium spinosum L.
Flowering: Dec to Jan.                                                Fruiting:  Jan. to Feb.
Vernacular name(s)
Oriya: Gola Kanta
Thai: Phak naam
Tripura: Pachak
Malay: Geli-geli
Bangladesh: Kalo- Kata
Botany
Lasia spinosa is a very prickly stout perennial herb with thick rhizome and hastate, pinnatifid leaves. Petiole erect prickly. Peduncle prickly, about as long as the petioles, with a deep purple thick and rather brittle twisted spathe. Flowers with pink imbricate lobes hooded over the stamens. Inflorescence in elongated spadix. Stigma orange, sessile. Heads of fruits oblong with spongy axis, berries more or less 4-sided, muricate. Seeds large in a coriaceous testa.
(It is a semi-shade plant with creeping along the stream of small mountain river)

Distribution
It is found along the muddy streams and frequently near the Gurguria in SBR, Sambalpur, Jharkhand, Thailand, Bhutan, Nepal, Southern China, Vietnam, Cambodia, Myanmar, Indonesia, Malayasia, Papua New Guina.

Uses
The tender leaves and rhizomes are used as a vegetable in SBR and other parts of India and world as different types of dishes. The roots are boiled with water used to bath new born babies. Suthikrai et al., (2007), reported that powder of whole plant is very effective in the growth of domestic cattle.

Medicinal values
Yadav and Temjenmongla (2011) reported that leaves juice has excellent anthelminthic activity.
Fruits and rhizomes are used to treat sore or swollen throat. Stem is used as  antitussive and expectorant. Stem boil with water and used to bathe to relieve itching from roseolar infantum, measles, rubella and other skin diseases. Leaf juice is used to relief abdominal pain.  Leaves are used to treat cough and various muscular pains.

Phytochemicals constituents

Shefana and Ekanayake (2009) reported tubers contain wide range of antioxidant compounds and Maisuthisakul (2008) reported that tubers are rich with Polyphenolic compounds. Hydrogen cyanide, poisonous compound, was found in fresh leaf and petiole. Calcium oxalate is in abundant quantity in tubers.
Specific information:
Lasia has been believed to be a monotypic genus until 1997 when a wild species, Lasia concinna, was discovered in a paddy field in west Kalimantan in Indonesia.
Costus speciosus Smith.
Common name(s) in SBR:
Botanical name:  Costus speciosus Smith.
Family: Costaceae
Synonym(s):
Flowering: July to Sept.                                              Fruiting: Nov. to Dec.
Vernacular name(s):
Oriya:
Bengoli: Kemuk
Hindi: Keu Kand
Sanskrit: Pushkarmula
Tamil: Kostam

Botany
It is an ornamental cum medicinal plant with 2-7 ft height. Stem usually spiral so that the distichous leaf arrangement is no longer apparent. Leaves elliptic-oblong. Flowers white, clustered in very dense spikes with a short corolla tube and are characterized by large and brown and red bracts. Fruits globose or ovoid capsule with obovoid or sub globose seed (Khanna et al., 1977). Root stock is tuberous and the stem is sub woody at the base.

Distribution
Throughout SBR and Odisha, Jharkhand, Native to south East Asia, Greater Sunda Islands of Indonesia, Cook Islands, Fiji, Hawaii.

Common Use(s)
Rootstock is edible in SBR and other place of the state. Leaves are used as curry.

Medicinal value(s)
Rhizome is used to treat intestinal worms and increase sexual attractiveness. Verma and Khosa (2009) reported the whole plant has antistress activity. Leaf powder with cow’s milk is used to treat Diabetes. Rhizome is used as expectorant and is used in asthma and its juice is used to cure leprosy with turmeric. Juice is also used in urinary complain.


Phytochemicals constituent(s)
Pandey et al., (2011), reported that Tubers and roots contain diosgenin, sitosterol, dioscin, prosapogenins A and B of diosceins, gracillin, and quinines. Various saponins, many new aliphatic esters and acids are reported from its rhizomes, seeds and roots. Rhizomes yield diosgenin (2.12%) and tigogenin. Essential oil from rhizome show anti microbial activity (Asolkar et al., 1992).

Economic Value(s)


Curcuma aromatica Salisb.
Common name(s) in SBR: Palo, Ban haldi
Botanical name: Curcuma aromatic Salisb.
Family: Zingiberaceae
Synonym(s):  Curcuma zedoaria Roxb.
Flowering: May to June                                             

Vernacular name(s):
Oriya: Banhaldi
Hindi: Jangli Haldi
Sanskrit: Aranyaharidra

Botany
Leaves not mature at the time of flowering, mature lower ovate, upper elongated to oblong with the base passing gradually into the winged petiole. Flowering stems distinct with a stem or peduncle. Flowers 2 inch reaching about level with the mouth of their bracts. Ovary and calyx hairy. Corolla white, upper lobe pubescent truncate emarginated with a short horn or cusp from the sinus. Rhizomes horizontal branched, with aromatic ginger smell, dirty white or yellowish inside, lateral tubers sessile.

Distribution
Very frequent in SBR, Hilly regions of Mayurbhanj, Parasnath Hills ranges, India and S. E. Asia. The plant grows wild in the Eastern Himalayas and in moist deciduous forests of coastal tract of Kanara and Kerala

Common use(s)
Arrowroot is prepared from the tubers which is edible. Particularly Khadia tribal group of Gurguria range is collected it and make arrowroot. It comes under Non Timber Forest Product (NTFP) among tribal community.

Medicinal value(s)
Aqueous extract of rhizome is taken as juice orally in empty stomach to cure dysentery and pain due to food poisoning. Raw rhizome is taken to cure constipation. Panda et al., 2011, reported that paste of rhizome is used to treat skin infections and naval infections in new-born babies and rhizome paste with Leaf of  Datura metal (Durdura) is externally applied to reduce breast swelling among tribal women.

Chemical compound(s)
Himaja  et al, 2010  reported that tubers have terpenoids, alkaloids, saponins, flavonoids, glycosides and tannins. It has also anti-microbial activity. Essential oil from rhizomes contains a-pinene, d-camphene, cineole, d-camphor etc (Husain et al, 1992). The novel sesquiterpenoids which have been isolated and characterised are cuzerenone, epi-cuzerenone, iso-furanogermerene, curcumadiol, curcumol, curcumenol,iso-curcumenol, procurcumenol, dehydrocurdione (Hikino et al, 1968, 1971, 1972) Insecticidal constituents were identified by Pandji et al (1993). The root extracts are tested at against Entamoeba histolytica (Ansari, 1993) was good.

Economic Values
The arrowroot is very costly (Approximately 350 rupee per kilogram) in the weekly market of SBR

Colocasia esculenta L.
Common name (s) in SBR: Bansaru
Botanical name: Colocasia esculenta L.
Family: Araceae
Synonym(s): Arum esculentum L, Colocasia antiquorum Schott.
Flowering: Aug. to Oct.                                            
Vernacular name (s):
Oriya: Ban Saru
Kondha: Gowsingo
Bhunia : Kanchi-Kanda
Hindi: Ban Kanda, Kacchu
Sanskrit:Alookam
English: Elephant Ear

Botany
It is perennial aroid with thick shoots from a large corm, slender stolons also often produced, along with offshoot corms. Leaves ovate, sub-triangular or sub-orbicular, cordate. Petioles large, succulent, often purplish near top. Inflorescence on a fleshy stalk shorter than leaf petioles; part of fleshy stalk enveloped by a long yellow bract .Spathe peduncled, yellow. Spathe  peduncled, yellow, mostly over 11 inch long convolute, never widely open. Spadix much shorter than the spathe, rather slender, appendix much shorter than the inflorescence. Stigma discoid. Flowers tiny, densely crowded on upper part of fleshy stalk, with female flowers below and male flowers above. Fruit a small berry, in clusters on the fleshy stalk.

Distribution
Throughout SBR and Odisha, Jharkhand, West Bengal, throughout the hotter parts of India up to 2200 meter on the Himalaya. Great diversity in North-eastern and south region of India. subtropical and tropical regions of the world. South Africa.

Common use(s)
Different cultivars are cultivated for the edible tubers. Corm is used as vegetables. Leaves are used to cook some vegetables cakes.
Medicinal value(s)
Rhizomes are used in Diabetes mellitus in SBR and Edison et al., 2006 reported juice of petiole is used as a stimulant and corm juice is used against Scorpion sting.

Phytochemicals constituent(s)
The main constitutes is oxalic acid which produce itching activity. Eddy, 2009 reported that aqueous extract of rhizome is rich of saponins and tannins. It has different types of toxins such as Hydrogen Cyanide, Steroid saponin and different types of inhibitors.

Economic Value(s)
It is sold and grown in many villages of Simlipal Biosphere Reserve Forest.
Alocasia macrorrhizos Roxb.
Common name(s) in SBR: Maan saru
Botanical name: Alocasia macrorrhiza Roxb.
Family: Araceae
Synonym(s): Alocasia odora Koch., Arum odorum Roxb.                                       
Vernacular name(s):
Oriya: Man kanda, Maan Saru
English: Giant Taro
Manipuri: Hongoo
Vietnam: Ray rung
Botany
It is largest aroids, forming a considerable aerial stem. Robust herb, more or less clothed with aerial roots. Leaves broadly ovate-sagittate, triangular-sagittate or ovate-cordate, peltate or not, repand, acute or rounded with a deflexed cusp, basal lobes shortly connate or not, ovate or semiovate, rounded. Fruit berry red.
Distribution
It is native to tropical Southeast Asia, India, and Sri Lanka. It is commonly found in tropical Himalayas, Malaysia, Queensland, Hawaiian, Australia.

Uses
Tuber and leaf are edible in SBR as vegetables along potato, and throughout India and abroad. It is a popular food during famine.

Medicinal values
Jaanne Packer et al.,( 2012) reported that the tubers used in various skin infections. Stem juice is effective against scorpion sting, leaves paste are used to cure joint pain. Root juice used as ant-malarial herbal drugs.

Phytochemicals constituents

Alocasin present in the plant has antifungal activity. The sap and the rhizome are very acrid, enriched with raphides which are Ca-oxalate crystals.

A common medicinal weed of Odisha, India: Euphorbia hirta L.


Euphorbia hirta, an important medicinal herb, belongs to family Euphorbiacese. As a widely used local and  traditional Chinese medicine ( TCM ) in clinical practice , the whole plant is commonly applied to cure various types diseases, especially gastrointestinal disorders (including intestinal parasites ,diarrhea peptic ulcers ,heartburn vomiting, and amoebic dysentery), affliction of the skin and mucous membranes ( including warts, scabies, tinea,  thrush,  aphthae, fungal,  affections, and measles) and respiratory system disorders (including asthma , bronchitis, hay fever, laryngeal spasms, emphysema , coughs, and colds) [Zhong yao da ci dina ,1986, Zhong hua ben cao,1999] E. hirta is native to Central America. It was introduced into Southeast Asia a long time ago and has since spread throughout. It is a very common herb in the pan-tropic and partly subtropics areas worldwide, including China, India Philippines, Australia, Africa, Malaysia, and so on. In China, E hirta is naturally distributed in Fujian Guangdong Guangxi, Guizhou, Haimam, Hunan, Jiangxi, Sichuan, Taiwan and the Yunnan regions [Flora of China (Year) .Recently, modern Pharmacological investigations showed that E. hirta and its active components possessed wide pharmacological investigations showed that E. hirta and its active components possessed wide  Pharmacological action, such as antic, action ,such as anti-inflammatory, antifungal, antibacterial, larvicdal,diuretic, and increases electrolytes. [Lanhers, 1990, Lanhers, 1991; Johnson, 1999; Euphorbiahirta L .Available : http://florabase.dec.wa.gov.au/profile.php/4629].  Most of its pharmacological action is in line with the traditional efficacy. On the other hand, E. hirta is used as livestock fodder worldwide. The chemical components of E. hirta along with its pharmacological action have been studies by various laboratories. Flavonoids, terpenoids, and phenols were isolated and identified as the main composition of E. hirta.
In the current study, an overview of the overall knowledge and information about E. hirta is presented fort the study of its ethno pharmacology, photochemistry, pharmacology, and toxicology.
Botany and ethnopharmacology
Botany
E. hirta is a small is annual, branched herb prostrate to ascending with branches reaching 70 cm in height, reddish or purplish in color with abundant latex covered with shot hairs. Its leaves are opposite, distichous, and simple; its obvious stipules are linear. The leaf blades are lanceolate-oblong, long elliptic,or ovate-lanceolate with assize of 1 cm to 4 cm    0.5 cm to 1 .3 cm base is unequal;cuneate, the other side is round; the apex almost     acute, and margins are finely toothed, often with a purple blotch near the midvein. The inflorescence of E. hirta has a terminal or axillary cluster of flowers, called a ‘cyathuium’, with several cyathia densely clustered into a cyme. The flowers unisexual; the male flowers sessile, the bracteoles liner ,fringed , perianth absent , and possesses one stamen, whereas the female flowers have short pedicel ,the perianth rimmed, the ovary superior, covered  with short hairs ,three-celled , possesses three styles ,minute ,and the apex is two-fid. Tge fruit of E. hirta is exserted ,acutely three-lobed capsule 1 mm to 1.5 mm,   1 mm to 1.5 mm base truncate, covered in chort hairs , and  three- seeded. The seeds are oblong  are  , Four sided prismatic, 0.7 mm to 0. 9 mm 0.4 mm to 0.5 mm, slightly wrinkled, pinkish brown, and car uncle absen. Flowering duration of individual plant is usually throughout the year E. hirta oftion grows in cultivated areas in lowland, paddy fields, gardens, roadsides, and waste places. They prefer dry condition, from sea-level upn to 2000 m altitude.
Ethno pharmacology
E. hirta has a long history as a medicinal herb in China .Different formulations are used, including crude drug, decoction, infusion, lotion, and powders. E. hirta plays a very important role in TCM, especially in folk medicine because of its wide range of biological and pharmacological properties,.Considering the effects of E. hirta on curing skin ulcer and swelling of body, it was first recorded in “ Ling Nan Cai Yao Lu”.More than ten folk medicinal books in China also have recorded this plant [Yin,2008,; Lian et al. 2005 ;Zhu et al 2007 he et .,2006].The whole plant was officially recorded in a Chinese pharmacopoeia (1977;edition ).However, E. hirta had been removed from the 1958 to 2005  edition ,and have been re-listed as Feiyangcao in the pharmacopoeia edition of 2010. The pharmacopoeia stated the properties of E. hirta that cure fever, detoxify, promote dieresis, stop itching and induces prolactin. The clinical indications include pulmonary abscess, acute mastitis, diarrhea, eczema, furunculosis, pyogenic infections,and postpartum malik. The fresh whole plant or its crude powders were in also traditionally used as veterinary medicine for treating esoenteritus, gastritis, diarrhea in pig ,cattle ,horse ,sheep ,and fish [The State pharmacopoeia Commission of peoples Republic of Chine ,2010].
E. hirta has also been widely used in medicine among minority group including Yao. Zhuang ,Dai, Nazi and Yi, who lived in the southern area of China .The Yao people use the entire plant for the treatment of bronchitis, external usage for scald and burned, decoction of dry plant ,whereas as fresh crushed leaves are used to cure skin disease [Yin,2008]. For the of Zhuang people ,a decoction, infusion , or tincture of the plants is used to treat asthma, chronic bronchial disorders, and emphysema [Liang et al.; 2005] For  Dai nationality, E. hirta ,commonly known as  Yan an mo ,Is applied to stimulate milk secretion and to stopping cough [Zhu et al.; 2007 .Moreover .E hirta is used to cure gonorrhea and hematurai in Naxi people [He et ., 2006]. Therefore, E. hirta can be served clinically as potential hemostatic.
                              E. hirta is included in the African pharmacopoeia of the Organization of African Unity as dysentery medication .In South Africa ,E. hirta is commonly used for asthma treatment , which is one of the most common respiratory complaints [Ekpo et al ., 2007 In West Africa, E. hirta is used a livestock fodder. In the Gold coast, E, hirta was ground .Mixed with water, and used an enema for constipation. In traditional Indian medicinal systems, the leaves are used in the treatment of coryza, cough, asthma, bronchial infections, bowel complaints, helminthic infestions, wounds, kidney stone, and abscesses. In addition, it is used for the treatment of syphilis .The latex is applied to the eyes to treat conjunctivitis and corneal  ulcerational .The tender shoots are used as famine food ,raw  or steamed , but they may cause intestinal complaints . Moreover, E. hirta is used by nursing mothers with deficient milk supply. In the Philippines , Leaves are mixed with dature metel leaves and flowers in the preparation of “asthma-cigarettes’ The latex and fluid extract of the tincture are used in asthma , chronic bronchitis , emphysema ,as well as in pulmonary cardiac disease and angina  pectoris and ringworm. The decoction is used to allay the dyspnea of asthmatics. The decoction of the root is used to aiiay vomiting, chronic diarrheas, and fevers. Root decoction is also used for snake bites, sores, wounds, and is beneficial for nursing mothers with deficient milk. The entire plant is prescribed as an antidote; it is considered haemostatic, sedative and soporific. In Australia, the most common use of E. hirta is to treat hypertension, asthma edemas, and pectoral complaints
Phytochemistry
E. hirta mainly contains Flavonoids, terpenoids, phenols, essential oil, and other compounds. The major chemical structures of these compounds are shown in Fig. 1.One type of the  important constituents of E. hirta is flavonoids including quercetin, quercitrin, quercitol, and derivatives containing rhamnose, quercetin-rhamoside, a chlorophenolic acid, rutin, quercitol, and derivatives containing rhamnose, quercetin-rhamoside, a chlorophenolic acid, rut in, leucocyanidin, leucocyanidol, myricitrin 3,5-diglucoside, pelargonium 3, 5-diglucoside, and ,camphol. The flavonol glycoside xanthorhamni was also isolated from E; hirta.The steams contain the hydrocarbon hentriacontane and myricyl alcohol. The latex contains inositol, taraxerol, friedelin B –amyrin , friedelin ,  taraxerol, and its esterst: taraxerone, 11a 12a oxidotaraerol, cycloartenol, 24- methylene-cycloartnol, and euphorobol hexacosoate. The aerial part and roots of E. hirta also contain diterpene esters of  the phorbol  type and ingenol type, including 12-deoxyphorbol-13dodecanoate-20aceteate,12deoxyphorbol-13-phenylacteate-20acetate,ingenol triacetate ,as well as the highly toxic tinyatoxin ,a resiniferonol  derivative.Some new ent-kaurane diterpenoid were isolated from the ethanol extract of E. hirta and idientified as 2-beta,16-alpha,19-trihydroxy-ent-kaurane,2-beta,16-alpha,-dihydroxy-ent-kaurane,2-beta,16-alpha,19-trihydroxy-ent-kaurane,[Yan et al.,2011].The other terpenoids isolated are sterols, including  B-sitosterol, campesterol, cholesterol, and  stigmasterol  [  Hazimi et al., 2008., Baslas et al ,. 1980].Tannins isolated from E. hirta include the dimeric hydrolysable dehydroellagitannins euphorbins A, B ,C, E, and techebin ,the monomeric hydrolysable tanning geraniin,2,4,6-tri-O-gallyl-b-D-glucose and 1,2,3,4,6-penta-O- gallyl-b-D-glucose and the easters 5-O-caffeoylquinic acid (neochlorogenic, gallic, tannic maleic and tartaric acids.The major components of the assential oil include 3, 7, 11, 15-teramethyl-2hexadecen-1-ol, 6,10,14-trimethly-2pentadecanone, hexadecanel, phytol,and  n-hexadecanoic acid adding up to  61.01%. Minor constituents of E. hirta include 2=- butoxyethanol,tetradecane, phthalic ,butyl teradeceyl ester ,oeic,acid , butyl tetradecly easter, oleic acid, 13-heptadecyn-1-ol, 2-methly-1-hexadecanol, and 1,2-benzene dicarboxylic  acid  diisooctylester. The component in essential oil may be responsible in the treatment of asthma and function as a repellent against Anopheles species, and thus, is useful for the treatment of malaria [Ogunlesi et al., 2009]. The other compounds found in the dride leaves was: Ca 1.1% ,P 0.%, Fe 0.03 %,Mg 0.5 %,Mn 0.01 %, And Cu 0.002 %.Fresh leaves  from E. hirta plants of Nigerian oring were found to contain high levels of  Mn (189ppm), Cu (30.5ppm),Zn(152ppm), and NO3 (4600ppm).Varying proportions of  of Fe, Mg, K Ca, and Na were also found .more recently, two novel butanol  rhabnopyranosides ( 1 and 2), have been isolated from various non-polar and polar extracts of an Indian  traditional herb, E. hirta . The structures of the new compounds were elucidated as n- buty-1-O—L rhamnopyranoside [Mallavadhani et al., 2009]
Pharmacological properties
Antibacterial/Antifungal activity
The antimicrobial activity of ethanol extracts of the aerial parts of the aerial parts of E. hirta was then investigated. A remarkable antimicrobial effect has been revealed against Escherichia coli (enteropathongen), Proteus vulgaris, pseudomonas aeruginosa, and Staphylococcus aureus.The  diameters  of  inhibition zones were 21, 19,23, and 19 mm, respectively .The MIC values were 0.189,0.2,0. 166, and 0.216 mg/mL [Sudhakar et al., 2006 ] . The ethanol extract from the leaves of E. hirta was analyzed for antimicrobial activitily against S. aureus, B. cereus, S typhi, K pneumonia , P aeruginosa, and fungus specices A. niger ,A fumigates, A. Flavus, and R .oryzae Antimicrobal activity was attributed to tannins ,flavonoids ,alkaloids,glycosides,proteins,sterols and saponins .Moreover ,leaves collected from august to December showed more significant antimicrobial activities [Suresh et all., 2008].
Mohammed abu Basma Rajeh assessed the potential antimicrobial activity of E. hirta leaves , flower, stem and root ,extracts  using abroad arrange of antimicrobial  samples ,including four gram positive bacteria  (S. aureus , Micrococcus sp., Bacillus, and Bacillus  thuringengensis ), four gram  negative bacteria (E. coli, K pneumonia, S typhi ,and .P. mirabilis), Candida  albicans ).Inhibition Zones ranged between 16 mm to 29 mm. Leaf extract inhibited the growth of all tested all the bacteria except C. albicans .The  most susceptible microbes to all extracts were S. aureus and Micrococcu sp. Root extract displayed larger inhibition zones against gram positive bacteria than gram negative bacteria, and had larger inhibition zones compared with the extract .The lowest MIC values were obtained for E. coli and C. albicans ( 3.12 mg/m
L, followed by S. aureus (12, 50 mg/ mL, and P. mirabilus (50.00 mg/mL). all other bacteria had MIC values of 100.00 Mg/mL [Mohammad et al., 2010]. The results support the use of E. hirta in Traditional medicine.
Anti-Allergic activity
The ethanolic extract of E. hirta was found to possess a prominent anti-anaphylactic activity. E. hirta inhibited passive cutaneous anaphylaxis( PAC)  in rat active paw anaphylaxis in mice .The suppressive  effect of E. hirta was observed on the release of TNF-a and IL -6 from anti DNP_HAS  activated rat peritoneal  mast cells. The findings of the current study prominently validate the traditional use of E. hirta as a herbal drug against Type I allergic disorders [Youssoyf et al. 2007].The current study demonstrated that 90% of the ethanolic extract from the whole aerial parts of E. hirta possessed, anti-inflammatory, and immunosuppressive properties. Moreover, the ethanolic extract of E. hirta can prevent and treat and rat anaphylactic [Yahossouf et al., 2007 Singh et al., 2006]
Antidiarrheal activity
The aqueous leaf extract of E. hirta significantly and –dependently decreased the gastrointestinal motility in normal rats and recreased the of castor oil-induced in mice [ Hore et al., 2006]. The antidiarrheal effect of the E. hirta herb decoction was studided in mie. It demonstrated an activity in modei s of diarrhea indced by castor oil, archidonic acid prostaglandin E 2.Quercitrin ,a flavonoids isolated from this drug contributed to the antidiarrrheal activity at dose of 50 mg/ kg ,against castor oil and prostaglandin E2-induced diarrhea in mice [Galvez et al .., 1993; Galvez et al . 1993] The water extract of E. hirta exhibited antidiarrheal ,antibacterial ,antiamoebic, and antitetanic  properties. The polyphenolic extract of E. hirta inhibited the growth of Entamoeba histolytic with a minimum active concentration of less than 10 g/ mL [Tona et al, 2000]
Anti-inflammatory activity
In 1991, Lanhers MC et al ([Lanhers et al .., 1991]) has proved that the extract of  E . hirta had significant  and dose-dependent  anit –inflammatory effect in  carrageenan –induced edema test in  rats (an acute inflammatory process ) From a Dose of 100 mg/kg]. Martinez Vet al. (1999) (Martinez et al., 1999]) evaluated the anti-informmatory effect of the N-hexane  extract of the aerial  parts of  E. hirta  and its main triterpene constituents .The results showed that the extract and chemicals reduced the effects in the model hyperalgia in a dose-dependent manner and displayed significant anti-inflammatory effects in the model of phorbol acetate-inuced ear inflammation in mice . In 2007, Ekpo O. E et al. evaluated the anti-inflammatory activity activity of the chemicals in E. hirta and concluded that the flavonoids quercitrin (converted to quercetin in the alimentary canal) and myricitrin, as well as the sterols 24-methlene-cycloartenol and -sitosterol, exert a noteworthy and dose –depends anti-inflammatory activity. Triterpene beta-amyrin also seems to exert a similar anti-inflammatory activity [Ekpo et al., 2007]. In 2010, Mei-Fen Shih elucidated the underlying pharmacological molecule mechanism of action in alleviating inflammation.  
 Antioxidant activity
The aqueous extract of E. hirta demonstrated an antioxidant effect and a free radical scavenging effect in various in vitro in models , such as total antioxidant effect reducing power determination ,free radical-scavenging activity assay using ABTS,DPPH, and hydroxyl radical scavenging assays. The extravt showed maximum antioxidant and free radical scavenging activities,at the concentration of 0,25 mg/mL. The free radical scavenging effect on hydroxyi and DPPH was (73.36_+ 5.21) % and (68.80 _+ 5.21) %, respectively [Sharma et al., 2007]. The free radical scavenging effect of ethanolic extract and petroleum ether extract of flower of E. hirta was also evaluated through various in vitro antioxidant assays, including 1, 1-diphenyl-2-picryl hydrazyl free radical scavenging activity, superoxide anion radical scavenging, No scavenging, and reducing power assay. It was compared with standard antioxidant compounds, such as butylated hydroxyl anisole and ascorbic acid, All the extract showed antioxidant activity [ Kuar et al ., 2010].
Anti-Diabetic activity
The antidiabetic activity of the ethanol ethyl acetate extracts of E. hirta was assayed in vitro using the alpha glucosidase inhibitor method and confirmed through in vivo oral glucose tolerance test using various loading methods. Several mechanisms may be involved in the process, including the antioxidant activity, a- glucosidase inhibitory activity, and increasing the activity of insulin release from B cells of the Langerhans islets. The study of ethanolic extract of leaf flower, and stem of E. hirta on streptozotocin –induced diabetic mice showed significant reduction in blood glucose leaves. Biochemical effects showed significant decreases in serum cholesterol with the elevation of HDL [Widharna et al., 2010]. The ethanolic and petroleum ether extract of the flower of E. hirta also demonstrated potential antidiabetic  mellitus activities in alloxan diabetic mice .A signification reduction in serum cholesterol, triglycreatinine ,urea and alkaline phosphatase leavels were pbserved after the administration of the extract .However ,high density lipoprotein levels and total proteins were found increase [ Kumar et al., 2010].
Other activities
Antihypertensive/ ACE Inhibition:
                          Angiotensin-converting enzyme inhibition and anti-dipsogenic activities of E. hirta extract: The current study showed that the extract from leaves and of E. hirta inhibited the activity of angiltensin-converting enzyme (ACE).
Anti-Malarial:
          Study of the isolated flvonol glycosides afzelin, quercitrin. The three compounds showed inhibition of the proliferation of Plasmodium falcifarum at different concentrations [Koli et al., 2002].

Chloroplast Engineering: A boon for third-world countries as therapeutic proteins

Sanjeet Kumar
Chloroplasts are the site of photosynthesis in plant mostly seen in leaves which provides the primary source of the world’s food productivity. Plastids of higher plants are generally semiautonomous. The plastid genome is a circular molecule of double stranded DNA. Plastids are plant cellular organelles with a ~120–150 kb genome present in 1,000–10,000 copies per cell (Bendich, 1987), and maternally inherited in most angiosperm plant species (Hagemann, 2004). Chloroplast transformation has become an attractive alternative to nuclear gene transformation due to its advantages: high protein levels, the feasibility of expressing multiple proteins from polycistronic mRNAs, and gene containment through the lack of pollen transmission (Maliga, 2002; Bock, 2007; Kittiwongwattana et al., 2007).
Introduction
The concept of chloroplast genetic engineering was developed in the 1980s (Daniell and Mc Fadden, 1987). and Boynton et al. (1988) was reported successfully chloroplast transformation in Chlamydomonas through gene gun. In 1989, stable chloroplast transformation in higher plants was achieved in Pal Malinga’s Laboratory (Svab et al., 1990). Chloroplast transformation generally results from homologous recombination, with a fragment of transforming DNA replacing the corresponding chloroplast DNA. Two decades ago, it has become a most attractive alternate to nuclear gene transformation due to great potential: high protein levels, the feasibility of expressing multiple proteins. Keeping the importance of this technique authors try to highlight the recent trends in Chloroplast engineering.
It was generally achieved by the biolistic process, with which the Escherichia coli plasmids containing a marker gene and the gene of interest were introduced into chloroplasts or plastids. The foreign genes were inserted into plasmid DNA by homologous recombination via the flanking sequences at the insertion site.
Plastid expression vectors possessed left and right flanking sequences each with 1–2 kb in size from the host plastid genome, which are used for foreign gene insertion into plastid DNA via homologous recombination. The site of insertion in the plastid genome is determined by the choice of ptDNA segment flanking the marker gene and the gene of interest. Insertion of foreign DNA in intergenic regions of the plastid genome had been accomplished at 16 sites (Maliga, 2004). Three of the insertion sites, trnV-3'rps12,trnI-trnA and trnfM-trnG, were most commonly used (Maliga, 2004).
Regulation sequences
The gene expression level in plastids is predominately determined by promoter and 5′-UTR elements (Gruissem and Tonkyn, 1993). Therefore, suitable 5′-untranslated regions (5′-UTRs) including a ribosomal binding site (RBS) are important elements of plastid expression vectors (Eibl et al., 1999). In order to obtain high-level protein accumulation from expression of the transgene, the first requirement is a strong promoter to ensure high levels of mRNA. Most laboratories used the strong plastid rRNA operon (rrn) promoter (Prrn). Stability of the transgenic mRNA is ensured by the 5′-UTR and 3′-UTR sequences flanking the transgenes.
Other applications
·         Production of biopharmaceuticals
·         In metabolic pathway engineering
·         In research on RNA editing
·         Production of therapeutic proteins
Several environmental stress such as disease, drought, insect pests, salinity and freezing, can severely limit plant growth and development. In order to improve the plant traits, many researchers had done a series attempts. Many important agronomic traits have already been engineered via the plastid genome, such as herbicide resistance, insect resistance, and tolerance to drought and salt.
Biotic stresses
The insect resistance genes were investigated for high-level expression from the chloroplast genome. Cry genes could be expressed extremely well in the plastid genome and there was no requirement to adjust the codon usage nor any need for other sequence manipulation (Kota et al., 1999; Cosa et al., 2001).
Abiotic stresses
Chloroplast engineering had been successfully applied for the development of plants with tolerance to salt, drought and low temperature. Previous research has shown that over expression of enzymes for Glycine betaine (GlyBet)biosynthesis in transgenic plants improved tolerance to various abiotic stresses (Rhodes and Hanson, 1993).
Conclusions
The chloroplast engineering provide a good platform of foreign gene expression and holds great potential for the introduction of agronomic traits as well as the production of therapeutic proteins or vaccines in plants indigenous to developing countries such as  India where people do not have access to these medicinal compounds. It has become a  powerful Biotechnological tool for the study of biogenesis. Therefore rapid research is needed to obtain the commercial application of chloroplast engineering.

Study of ethnobotany & anti-microbial values of Wild Cucurbits of Simlipal Biosphere Reserve Forest, Odisha, India

Sanjeet Kumar

Most of the modern researchers on herbal medicine have hinged around traditional folklore medicine. The modern medicine has brought with it an array of drugs, none of which is non-toxic and quite safer for human consumption. There are hundreds of medicinal plants that have a long history of curative properties against various diseases and ailments. However, screening of plants for their activity is very essential and needs urgent attention in order to know the value of the plant. The screening of the plants for their biological activity is done on the basis of either their chemotaxonomic investigation or ethnobotanical knowledge for a particular disease.

The family Cucurbitaceae includes a large group of plants which are medicinally valuable. It is a family of about 130 genera and about 800 species.
Seeds or fruit parts of some cucurbits are reported to possess purgatives, emetics and antihelmintics properties due to the secondary metabolite cucurbitacin content.  A number of compounds of this group have been investigated for their cytotoxic, hepatoprotective, anti-inflammatory and cardiovascular effects. Cucurbitacins constitute a group of diverse triterpenoid substances which are well known for their bitterness and toxicity.
                                                    Identification of a particular compound against a specific disease is a challenging long process. Importance of the plant lies in their biologically active principles. There are two types of plant chemicals, primary metabolites such as sugars, proteins, amino acids, chlorophylls, etc. The other category of chemicals is called secondary metabolites, which includes alkaloids, terpenoids, saponins and phenolic compounds. These chemicals exert a significant physiological effect on the mammalian system. Microorganisms have developed resistance to many antibiotics and this has created immense clinical problem in the treatment of infectious diseases (Davis, 1994). The increase in resistance to microorganisms due to indiscri- minate use of antimicrobial drugs forced scientists to search for new antimicrobial substances from various sources including medicinal plants (Karaman et al., 2003). Another driving factor for the renewed interest in past 20 years has been the rapid rate of plant species extinction. Around 12,000 plant secondary metabolites of antimicrobial importance have been isolated. These compounds fall in one of the major groups of compounds like phenols, quinines, flavonoids, tannins, terpenoids, alkaloids and other mixtures (Scultes, 1978). Infectious diseases account for high proportion of health problems in the developing countries (Sashi et al., 2003). In India, about 2,500 species of plants are used for medicinal purposes and about 90% of the medicinal plants provide raw materials for the herbal pharmaceuticals, which are collected from wild habitats. The rich knowledge base of countries like India in medicinal plants and healthcare has lead to the keen interest by pharmaceutical companies to use this knowledge as a resource for research and development programs in the pursuit of discovering novel drugs (Rajasekharan and Ganeshan, 2002). However, several plants are used in India in the form of crude extracts without scientific evidence of efficacy (Ahmed et al., 1998). At this juncture it is of interest to determine the scientific basis for the traditional use of these plants.
The use of plants and plant products as medicines could be traced back from human civilization. The herbal wealth of India and the knowledge of their medicinal properties have a long tradition, as referred in Rig Veda and other ancient literature. The topography of India which is in the tropical belt with its varied climatic zones makes it a vast storehouse of medicinal plants. There is a continuous and urgent need to discover new antimicrobial compounds with diverse chemical structures and novel mechanisms of action because there has been an alarming increase in the incidence of new and re-emerging infectious diseases. Another big concern is the development of resistance to the antibiotics in current clinical use (Rojas et al., 2003). Higher plants produce hundreds to thousands of diverse chemical compounds with different biological activities (mer ERT.RK1 et al., 2006). Antimicrobials of plant origin have enormous therapeutic potential. The potential plant antimicrobials are combinations of the secondary metabolites such as alkaloids, steroids, resins, tannins, phenolics, flavonoids, steroids and fatty acids which have a potential effect on the physiological effects on the body.

Some major Wild Cucurbits of Odisha are:
·       Coccinia grandis L.
·       Cucumis melo L.
·       Cucumis hardwickii Royle.
·       Diplocyclos palmatus L.
·       Luffa acutangula L.
·       Luffa aegyptiaca Mill.
·       Solina amplexicaulis Lam.
·       Mukia maderaspatana L.
·       Trichosanthes cucumerina L.
·       Trichosanthes tricuspidata Lour.


Review of literature
Phytochemical screening of Cucurbits, reported the presence of saponins, cardenolides, flavonoids and polyphenols may be attributed to antibacterial activity. It provides the basis for further investigation on these plants to isolate active constituents and drug development. Phenolic compounds are generally noted for their antimicrobial activities (Evans, 1989). These phenolic constituents present in the exudates could then be responsible for its antibacterial effect. The leaves of the plant possess anti diabetic, anti-inflammatory, antipyretic, analgesic and antimicrobial properties (Asolkar et al., 1992; Nadkarni and Nadkarni, 1992). The leaves of the plant possess hepatoprotective effect (Vinoth Kumar et al., 2010).

}  Phytochemical screening of Cucurbits, reported the presence of saponins, cardenolides, flavonoids and polyphenols may be attributed to antibacterial activity (Vinoth Kumar et al., 2010).
}  The leaves of the cucurbits plant possess hepatoprotective effect (Vinoth Kumar et al., 2010).
}  The leaves of the plant possess anti diabetic, anti-inflammatory, antipyretic, analgesic and antimicrobial properties (Asolkar et al., 1992; Nadkarni and Nadkarni, 1992).
}  Cucurbitacins constitute a group of diverse triterpenoid substances which are well known for their bitterness and toxicity (Asolkar et al., 1992; Nadkarni and Nadkarni, 1992).
}  Raja et al., (2007) reported the effect of leaf-tea of Mukia madraspatana on Blood Pressure
}  Ravishankar et al.,(2012) reported anti-bacterial activity of Cucurbita maxima L.
}  Studies on the pharmacological activities have shown the presence of anti-inflammatory activity in root tubers and antidiabetic activity in seeds of Trichosanthes cucumerina (Kolte et al., 1996-1997; Kar et al., 2003).
}  Velmurugan et al., (2011) reported the phytochemicals such as phenolic compounds, tannin, saponnin etc. and biological activity of Luffa cylindrica L.
}  Muthumani et al., (2010) reported anti-microbial using MIC test and anti-inflammatory activity of Luffa seeds.
}  Hazra et al., (2011) reported the hypoglycemic and antihyperglycmic effects of Luffa cylindrica
}  Hussain et al., (2010) reported the anti-bacterial activity of Coccinia indica L.
}  Dhanraj and Jegadeeran (2011) reported the phytochemicals such as Phenolic compounds and Flavonoids in Mukia maderaspatana
Study Area
The study was conducted during 2011 to 2012 in Simlipal Biosphere Reserve Forest (SBR) of Mayurbhanj districts of Odisha. SBR is located in the centre part of the district, close to the interstate boundary with West Bengal in the North-East direction and Jharkhand in the North-West. It contains three protected habitats within its precincts, namely Simlipal Tiger Reserve, Sanctuary and National Park. The SBR is having a compact mass of natural forests spread over an area of 5,569 sq. km lying between 21º 10' to 22° 12' N and 85° 58' to 86° 42' E, ranging between 300 m to 1,180 m above sea level with numerous rolling hills with semi-evergreen forest, moist deciduous forest, dry deciduous hill forest, Sal forest, grass land and savanna. The core area occupies 845 sq km, which is intensively protected and absolutely undisturbed, secured legally and managed scientifically. The core area includes Simlipal Tiger Reserve and Simlipal National Park. No biotic interference is permitted in the 2,129 sq. km buffer zone that surrounds the core zone. The core and buffer zones of the Biosphere Reserve are under the administrative control of the three forest divisions: Karanjia, Baripada and Rairangpur .There are four villages inside the core area; Jenabil is one of them, having great beauty with Sal (Shorea robusta) forest and rich biodiversity of flora and fauna. The climate of the SBR is warm and humid. Three distinct seasons are felt during the year. Rainy season (mid June till October), winter (mid October to February) and summer (March to mid June). The annual rainfall is varies from 1200 mm to 2000 mm and the temperature ranges from 9.8° to 33.5°C. The southern and western regions are cooler and northern and eastern regions are warmer. Periodic earth tremors, thunder storms with rains and dust storms are felt in late May and early June.The dominant tribes in the district are Kharia, Mankdias, Santhal, Kol, Bhumija, Bhuyan, Mahalis, Sounti and Saharas. Some of the tribes namely Kharia and Mankdias are still in the primitive state of living. These tribes till today depend upon the wild foods available in the forest zones.
Methodology for collecting data
Data collections were made by Christian and Brigitte, (2004) followed field survey, taxonomic characterization and interaction with tribal community.
Collection of Data about Plant
The study was conducted using semi-structural interview, field observation, group discussion and local weekly market survey. Several field trips were undertaken during 2011- 2012. The information was accrued after discussion with several tribal persons of different tribal groups. Repeated interviews through questionnaires were made in different villages such as Gurguria, Kasipani, Ghatkumari, Kukurbhuka, Sanuski, Bangriposi, Astakumar, Nawana and Kolha to authenticate the information. Plants materials were collected and identified by Authors following the Flora Books (Haines, 1921-25, Saxena and Brahmam, 1994-1996).
 Probable research output
·        Available literature depicts that Cucurbits are good source of Antimicrobial and Bioactive compounds.
·        Many of these plants or its parts are used as traditional medicine by the rural and tribal people in different parts of the country. This practice is also not uncommon in Odisha.
·        Keeping this in view an attempt has been made in the present study to assess the medicinal values of wild cucurbits commonly used by the tribal of Simlipal Biosphere Reserve forest, and analyse the active bio-active compounds present in them.
·         The study will help in conforming the practice of these plants or their products against specific diseases and suggest the possible use of the extracts in preparations of different medicines.

Conclusion
Throughout history aboriginal people have been the custodians of biodiversity while sustaining healthy lifestyles that utilize natural resources. Unfortunately, their basic requirements sometimes force them into activities such as deforestation for monetary gains, or for extending agricultural activities that lead to a loss of biodiversity, which is the very source of their food and medicines. The tribals of Simlipal Biosphere Reserve are an excellent example of a culture that has not exploited a highly diverse area despite the fact that they harvest their food and medicine from the wild for thousands of years. This is the first step toward the recognition of TK in a scientific approach that will enhance society, nutrition, medicine, and resource management, etc. A quantitative approach provides a means of validation and a measure of confidence. Clear methodology allows the research to be repeated and results to be applied at a larger scale to heal common ailments in society-at-large and use TK to understand biodiversity so that we can develop better management strategies and policies.

References
1.     Davis J (1994). Inactivation of antibiotics and the dissemination of resistance genes. Science 264: 375-382.

2.     Karaman I, Sahin P, Gulluce M, Oguten H, Songul M, Adiguzed A (2003). Antimicrobial activity of aqueous and methanol extracts of Juniperus oxycedrus L. J. Ethnopharmacol. 2837: 1-5.

3.     Scultes RE (1978). The kingdom of plants In : W.A .R Thomson (ed.), Medicines from the earth, Mc Graw – Hill Book Co., New York, p. 208.

4.     Sashi KJ, Ramya M, Janardhan K (2003). Antimicrobial activity of ethnomedicinal plants of Nilgiri Biosphere reserve and Western Ghats. Asian J. Microbiol. Biotechnol. Environ. Sci. 5: 183-185.

5.     Rajasekharan PE, Ganeshan S (2002). Conservation of medicinal plant biodiversity in Indian perspective. J. Med. Aromatic Pl. Sci. 24: 132-147.

6.     Ahmed I, Mehmood Z, Mohammad F (1998) . Screening of some Indian medicinal plants for antimicrobial properties. J. Ethnopharmacol. 62: 183-193.

7.     Rojas, R., Bustamante, B., Bauer, J. Antimicrobial activity of selected Peruvian medicinal plants. J Ethnopharmacol. 2003. 88: 199-204.

8.     mer ERT.RK1, Hatice KATI2, Nurettin YAYLI3, Zihni DEMÜRBAÚ2. Antimicrobial Properties of Silene multifida (Adams) Rohrb. Plant Extracts. Turk J Biol. 2006. 30. 17-21.

9.     Evans, J.R., Doyle, J., Dolores, D. Evans. Escherichia coli. Medical microbiology. 4th Edn. The University of Texas Medical Branch at Galveston. 2007.

10.                        Asolkar, L.V., Kakkar, K.K., Chakre, O.J. Second supplement to Glossary of Indian Medicinal Plants with active principle part-I (A-K). Council of scientific and industrial research (PID) (part-I), New Delhi. 1992. 217-218.

11.                        Nadkarni, K.M., Nadkarni, A.K. Indian material medica 3rd Edn. (Vol-1). Popular Prakashan Pvt., Ltd., New Delhi. 1992. 300-302.v.

12.                        Vinothkumar, P., Sivaraj, A., Elumalai, E.K., Senthil Kumar, B.Hepatoprotective effect of Coccinia grandis aqueous leaf extract on carbon tetrachloride (CCl4) induced liver damage in albino rats. J. Pharmagenesis. 2010. 1(2):165-169.

Ethnobotanical values of Mudmudika (Helicteres isora L.): A common medicinally important shrub of Odisha

Sanjeet Kumar
Regional Plant Resource Centre
Bhubaneswar
sanjeet.biotech@gmail.com

Odisha, with its great biodiversity, has a tremendous potential and advantage in the emerging area of herbal medicine. Mudmudika (Helicteres isora L.) is a common medicinal shrub among the populace of Odisha having potential to cure diabetic, weakness in new-born baby, diarrhoea and scabies. Ethnobotanical values, phytochemical screening and antimicrobial activity of two aqueous and methanol extract of leaf (Helicteres isora L.) were studied. Mean value of zone of inhibition(mm) of aqueous and methanol extracts  were  15.28 , 12.34 against E.coli and 11.3, 8.41 against A,niger. Analysis of bioactive compounds revealed presence of phenolic compounds, glycosides,flavonoids, tannin and saponin. Etnobotanical survey revealed the uses of leaf extract against different fungal infections. The presence of tannin, flavonoids and saponin confirmed the claimed made by tribal community of Odisha. Present study highlighting the pharmacological confirmation against tribal claimed. Mudmudika (Helicteres isora L.) is a common sub-deciduous shrub or a small tree plant belongs to family Sterculiaceae of Odisha with many vernacular name(s) due to its diversity in the state, such as Kurkurbicha, Sinkri and Pita Baranda (Among Kolho of Simlipal biosphere reserve forest). It is very popular among the different tribal populace of Odisha due to its potent ethnomedicinal value(s) and unique fruit shape as screw, therefore it is also known as “Indian Screw Tree” in world. It is widely distributed in Odisha; frequently available in costal forest block of the state and the hill slopes of Eastern Ghat, throughout India, Malaysia, Sri Lanka, Java and Australia up to 1500 meter. It is a shrub with hairy branches. Leaves orbicular, obovate or broadly ovate or oblong with cordate at base, irregular serrate and apex acuminate. Flowers brick-red and irregular with zygomorphic. Calyx orange. Fruits are woody greenish rolled carpels, brownish black when ripe. Seeds wrinkled, truncate and angular. Tribal community of the state use its parts in various infections and diseases as a paste, oral, juice and with other plant parts in different aqueous formulations. Root juice is claimed to be useful in cough and asthma. Fruits are demulcent, mildly astringent and useful in griping and flatulence. Decoction of the root used to be mixed with turmeric powder and applied externally to treat cuts and wounds. Aqueous, ethanol and butanol extract of root has been reported to possess antihyperglycemic activity. Aqueous extract of fruit was reported agaimst avian myeloblastosis virus and human immunodeficiency virus. Bark extract shown hypoglycaemic activity. Fruit extract shown significant activity against Bacillus species, Enterococcus faecalis, Escherichia coli, Pseudomonas aeruginosa, Salmonella tuphi, Shigella sonei and Staphylococcus aureus. To the best of our knowledge may be no report is available on the antimicrobial activity of leaf.  As there is no reference in literature regarding the antimicrobial activity of leaf extract of Mudmudika.

Sanjeet Kumar

Kerang: A cultural heritage of Deomali hills

The Gadaba and Bonda tribal communities of the Deomali hills possess an age-old tradition of weaving distinctive textiles using fibres deriv...