ID: 63768
Title: Flora of Khandagiri and Udayagiri: An Urban Heritage of Odisha
Author: Mohini Kanti Das
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (6) 509- 518 (2020)
Subject: Flora of Khandagiri and Udayagiri: An Urban Heritage of Odisha
Keywords: Khandagiri-Udayagiri Hills, Cryptogams, Floral Diversity, Threatened plants, Conservation
Abstract: The Khandagiri and Udayagiri hills are situated in the heart of temple city Bhubaneswar with about 411 species of plants. The vegetation here more or less conforms to tropical low mixed and semi evergreen forest and dry evergreen forest type vegetation, characteristics of sandstone hills that are similar to Chandaka-Dampada-Nandanakanan range. Additionally, the area is home to over 100 species of medicinal plants, wild edible fruit plants and several botanically interesting species. Gardenia latifolia, Memecylon umbellatum, Pterospermum xylocarpum, Alphonsea madraspatana, Desmodium alysicarpoides, Syzgium cerasoides, Canthium dicoccum, Manilkara hexandra, Sarcostemma acidum, Croton caudatus are some of the characteristics plants found in this hill. The paper highlights the needs of conservation of this unique threatened habitat which might help in its long-term protection and conservation.
Location: T E 15 New Biology building
Literature cited 1: Bhadra A.K. and Pattnayak S.K. ( 2019) .Tree Species Population Dynamics in the Tropical Dry Deciduous Forest of Gandhamardan Hills, Eastern Ghats, Western Odisha. Indian Forester, 145 (2): 101-113.
Choudhary B.P. and Patnaik S.N. (1982) .Contribution to the flora of the Khandagiri-Udayagiri hills. Journal of Economic and Taxonomic Botany, 3: 797-810.
Literature cited 2: Haines H.H. (1921-1925).The Botany of Bihar and Orissa, vol5-6.Adlard and Sons and West Newman. London, pp1115-1124.
Kumar A.R., Das B.K. and Rajak F.( 2018) .Assessment of Jainism cave architecture of Khandgiri and Udaygiri caves of Orissa. International Journal of Civil Engineering and Technology, 9 (7): 1713-1723.
ID: 63767
Title: Variations in Pod and seed traits of Dalbergia sissoo in different seed sources from Himachal Pradesh, India
Author: Meenakshi Dhiman, Neerja Rana and Vinay Kumar
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (6) 503- 508 (2020)
Subject: Variations in Pod and seed traits of Dalbergia sissoo in different seed sources from Himachal Pradesh, India
Keywords: Biomass, Growing stock, Assessment, Degradation, Forest cover
Abstract: Studies to assess carbon stocks and their potential for implementation of REED and REDD + projects and policies have been conducted by scientists, academicians and policy makers all over the world. The present study reports estimates of carbon pools and fluxes in forests of all Indian states and union Territories since 2003 to 2017.To estimate the carbon storage in state wise in forests growing stock data from 2003 to 2017 were used. Biomass data for the years 2003, 2009, 2011, 2013, 2015 and 2017 were used to calculate the net flux caused by deforestation and degradation, between five assessment periods i.e. Assessment Period fists (ASP 1; 2003-2009) ,(ASPII; 2009-2011) , ASPIII; 2011-2013), (ASPIV;2013-2015) and (ASP V; 2015-017).The estimated carbon stock (Mt) was 2912.14, 2768.87, 2745.69, 2569.01, 2618.84 and 2643.64 Mt respectively for the years 2003, 2009, 2011, 2013, 2015 and 2017.There was a net positive flux for first three assessment periods (698.04 Mt of CO2 in ASP I, 85.08 Mt of CO2 in ASPII, 648.4 Mt of CO2 in ASP III) and net negative flux ( -184.14 Mt of CO2 in ASP IV and -91.00 Mt of CO2 in ASP V) for last two assessment periods. The net flux also impacted annual CO2 emission and was of the value of 349.02, 42.54, 324.2, -92.07 and -45.50 Mt of CO2 emission and was of the value of 349.02, 42.54, 324.2, -92.07 and -45.50 Mt of CO2 respectively for respective assessment periods. The carbon stock in India’s forest biomass decreased continuously from 2003 onwards till 2015 thereafter; there is an increase in carbon stock from 2569.01 in 2015 to 2643.64 in 2017.Further forest degradation will reduce forest carbon density and hence release of carbon into the atmosphere will enhance leading to global warming. However, proper management of degraded forests and ways to enhance the forest cover will result in significant increase in carbon sequestration by India’s forests and may have more scope during implementation of REDD and REDD + projects and policies.
Location: T E 15 New Biology building
Literature cited 1: Ahmad R.Z. Shaheen M.N.K.Afzal J., Siddique S.U., Qamar I.A. and Ahmad J. (2015) .Improvement of seed germination in some important multi-purpose leguminous trees of Islamabad Area: An experimental study.4 (7) :217-224.
Callaham R.Z. (1964) .Provenance research: investigation of genetic diversity associated with geography. Unasylva.18:40-50.
Literature cited 2: Czabator F.J. (1962) .Germination value: an index combining speed and completeness of pine seed germination .Forest Science, 8: 386-396.
Grouse R.J.(1962).Germination value: an index combining speed and completeness of pine seed germination .Forest Science, 8: 386-396.
ID: 63766
Title: Quantitative assessment of Dendrocalmus strictus Bamboo resource of Punjab and Management suggestions: case study in Dasuya Forest Division
Author: V.K.Dhawan and Vedpal Singh
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (6) 496- 502 (2020)
Subject: Quantitative assessment of Dendrocalmus strictus Bamboo resource of Punjab and Management suggestions: case study in Dasuya Forest Division
Keywords: Dendrocalamus strictus, congested clump, working circle, rehabilitation working circle
Abstract: An investigation was carried out on Dendrocalamus strictus for immediate need of bamboo working in Dasuya Forest Division of Punjab. A total of 3, 16,970 clumps were assessed. The study revealed them more than 50 percent of bamboo clumps in this division are dying due to heavy congestion (non working) .Whole of the bamboo forests were divided into bamboo working and bamboo rehabilitation working circles. Though the average percentage of congested clumps come to 54.23, the compartments having less than 50 percent congested clumps were allocated to Bamboo Working Circle and where the congestion was more than 50 per cent, the compartment s were allocated to Bamboo Rehabilitation Working Circle. It was also found that bamboo clumps were getting weak due to invasion of termites and grazing. Regeneration of bamboo was also found very sparse. If the congested clumps are not allocated for working in the present working plan, their quality will be deteriotarated as they get dried, attacked by termites, wind, fire and get decomposed.
Location: T E 15 New Biology building
Literature cited 1: Anon., (2010) .Forest Sector Report of India 2010.Indian Council of Forestry Research and Education, 2010, Dehradun.
Banik R.L. (2015) .Harvesting technique In: Liese W and Kohli M (eds).Bamboo-The plant and its uses, Tropical Forestry Series. Springer Hamburg Germany.pp 193-226.[DO.10.1007/978-3-319-14133-6_7]
Literature cited 2: FRI (2016) .Working plan of Karanpur, Brindraban and Nandbir Forests of Dasuya Forest Division for the period 2014-15 to 2028-29. Prepared by Forest Research Institute, Dehra Dun.
FSI (2011). India State of Forest Report-2011.Forest Survey of India, Dehradun.
FSI (2017). India State of Forest Report-2017.Forest Survey of India.Dehra Dun.
ID: 63765
Title: Valuation and quantification of Non-timber forest products (NTFPS) available in Baria forest division of Gujarat state, India
Author: Rajkumar Yadav, Ketan Mewada, Sweta Rajpurohit and R.D.Kamboj
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (6) 490- 495 (2020)
Subject: Valuation and quantification of Non-timber forest products (NTFPS) available in Baria forest division of Gujarat state, India
Keywords: Valuation, Quantification, NTFPs, Economic value
Abstract: Non-timber Forest Products NTFPs) are the most accessible forest products of forest dwellers living in the vicinity of the forest areas which are important for their livelihood. In the present study, 10% of total villagers and 10% of total sampled village households were selected in Baria Forest Division (BFD). Apart from this, the house-to-house structured questionnaire survey revealed that forest of BFD yield various NTFPs which are being collected by local people. During the study, a total of 43 types of NTFPs have been identified in BFD having economic value of INR 334.74 million/annum. The study also revealed that maximum economic value comes from leaves (76.25%) followed by flowers and seeds (18.37% ) , fruits (3.18%), herbs and other miscellaneous items (1.26%), gums and tanning materials (0.54%) while the least was recorded from the bamboos (0.37%). Moreover, the estimated per capita value was found to be INR 157.3/annum against the per capita forest area of 0.038 ha. Thus, these NTFPs plays an important role in the improvement of livelihood of forest dwellers living in the forest areas.
Location: T E 15 New Biology building
Literature cited 1: Bhat S.A. ( 2012) .Extraction Pattern of on Timber Forest Products and its effects onregeneration of important tree species in Achanakmar Amarkantak Vishwvidyalaya , Department of Forestry , Wildlife and Environmental Sciences, Bilashpur.
Champion H.G. and Seth S.K. (1968) .A revised forest types of India, Manager of Publications, Government of India, Delhi, 404pp.
Literature cited 2: FAO. (2014, January 17) .Food and Agriculture Organization of the United Nation. Retrieved from www.fao.org:www.fao.org/forestry/inwfp/6388/en/.
Gavli R.V. (2008). Socioeconomic review Gujarat state (2008). Directorate of economics and statistics. Gandhinagar: Government of Gujarat, 108pp.
ID: 63764
Title: Biomass Carbon stocks and fluxes in States and Union territories of India
Author: Kaiseer Iqbal, Nazir A.Pala, Jahangeer A.Bhat, AAtif Hussain, Muneesa Banday and A.K.Negi
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (6) 479- 489 (2020)
Subject: Biomass Carbon stocks and fluxes in States and Union territories of India
Keywords: Biomass, Growing stock, Assessment, Degradation, Forest cover
Abstract: Studies to assess carbon stocks and their potential first implementation of REDD and REDD+ projects and policies have been conducted by scientists, academicians and policy makers all over the world. The present study reports estimates of carbon pools and fluxes in forests of all Indian states and Union Territories since 2003, 2009, 2011, 2013, 2015 and 2017 were used to calculate the net flux caused by deforestation and degradation, between five assessment periods i.e. ,Assesment Period first (ASPI; 2003-2009), (ASPII; 2009-2011) ,(ASP III; 2011-2013), ASP IV; 2013-2015) and (ASPV; 2015-2017) .The estimated carbon (Mt) was 2912.1, 2768.87, 2745.69, 2569.01, 2618.84 and 2643.64 Mt respectively for the years 2003, 2009, 2011, 2013, 2015 and 2017.There was a net positive flux for first three assessment periods (698.04 Mt of Co2, in ASPI, 85.08 Mt flux for first three assessment periods (698.04 Mt of CO2 in ASP 1, 85.08 Mt of CO2 in ASP II, 648.4 Mt of CO2 in ASPIII) and net negative flux ( -184.14 Mt of CO2 in ASP IV and -91.00 Mt of CO2 in ASP V) for last two assessment periods. The net flux also impacted annual CO2 emission and was of the value of 349.02, 42.54, 324.2, -92.07 and -45.50 Mt of CO2 respectively for respective assement periods. The carbon stock in India’s forest biomass decreased continuously from 2003 onwards till 2015 thereafter; there is an increase in carbon stock from 2569.01 in 2015 to 2643.64 in 2017.Further forest degradation will reduce forest carbon density and hence release of carbon into the atmosphere will enhance leading to global warming .However, proper management of degraded forests and ways to enhance the forest cover will result in significant increase in carbon sequestration by India’s forests and may have more scope during implementation of REDD and REDD+ projects and policies.
Location: T E 15 New Biology building
Literature cited 1: ALGAS (1998) .Asia Least- cost Greenhouse Gas Abatement Strategy India Country Report.1998.Asian Development Bank. Global Environment Facility United Nations Development Programme, Manila, Philippines.
Andreae M.O (1991) .Biomass burning. Its history, use, and distribution and its impact on environmental quality and global climate. In Global Biomass Burning Burning: Atmospheric, Climatic, and Biospeheric Implications. Edited by: Levine JS.MIT Press, Cambridge, Massachusetts; 3-21.
Literature cited 2: Andreae M.O. (1993). The influence of tropical biomass burning on climate and the atmospheric environment. In Biogeochemistry of Global Change: Radiatively Active Trace Gases. Edited by: Oremland RS. chapman and Hall, New York, 113-150.
ID: 63763
Title: Sustainable forest management and avoiding pandemic crisis
Author: Dina nath Tewari
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (6) 475- 478 (2020)
Subject: Sustainable forest management and avoiding pandemic crisis
Keywords: Pandemic, Covid-19, Wild life, Trafficking, Behavioural
Abstract: Forests are a unique gift from nature to man. They are the most biologically diverse ecosystem on land and home of more than 75 % of terrestrial species of animals, birds, plants and insects. They store about 296 Giga ton of carbon and counter climate climate change. They conserve soil, fix nitrogen and add organic matter to improve soil fertility. Forested watersheds and wetlands supply 75% of fresh water. They clean air and water, provide critical wildlife habitat, and make the planet a healthier place to live. Deforestation, climate change, poaching of wildlife, capturing them and their illegal world trade are worrisome. Due to the consumption and exposure of meat from the “wet market” or unnatural reproduction of animals, their deadly viruses are spreading in humans by spreading global epidemics. In the years 2003 to 2019, three global epidemics were encountered. The Covid-19 epidemic has disturbed the entire world. To avoid global epidemics in the future, sustainable forest management and allowing wildlife to live in the forests is absolutely necessary for public welfare.
Location: T E 15 New Biology building
Literature cited 1: Agenda (2030).Sustainable Development Goal-15 Life on land...Sustainable Manage forests...halt biodiversity loss.
David quamen (2020).”How we made the corona virus Pandemic “published in Sunday Times of India April 5, 2020.
Literature cited 2: Tewari, D.N. (2019).”Paryavarn, Satat Vikas Evam Jeevan” inHindi, published by Granth Academy New Delhi 2019.
Forest Survey of India, Dehradun, Ministry of Environment , Forests & Climate Change, India State Forest Report.
ID: 63762
Title: Dimensional Stability o wood modified by Citric acid
Author: Ajmal Samani, Sanjeet Kumar Hom, Yasir Ullah Bhoru and Sauradipta Ganguly
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 455- 458 (2020)
Subject: Dimensional Stability o wood modified by Citric acid
Keywords: Wood modification, Citric acid, Dimensional stability
Abstract: Wood samples of Pinus roxburghii and Populus deltoids were chemically modified by using three different treatments and cured by convection hating at 140˚C for 8 h. The dimensional stability of the modified wood was determined by evaluating anti-swelling efficiency using the water soak/oven dry method. Citric acid modification resulted in better dimensional stability compared to control samples in both the species. The current study indicates that treatment with Citric acid 1.8 % and Sodium hypophosphate 13.0 % resulted in optimal improvement in dimensional stability of wood.
Location: T E 15 New Biology building
Literature cited 1: Despot R., Hassan M., Jug M., and Sefc B. (2008) .Biological durability of wood modified by Citric acid. Drvna industrija, 59(2) : 55-59.
Donat S., Militz H. and Mai C. (2004).Wood modification with alcoxysilanes .Wood Science Technology, 38: 555-566.
Literature cited 2: Gabrielli C. and Kamke F.A., (2008) .Treatment of chemically modified wood with VTC process to improve dimensional stability. Forest Products Journal, 58(12): 82-85.
Hansmann C., Weichslberger G. and Gindl W. (2005). A two-step modification treatment of solid wood by bulk modification and surface treatment. Wood Science Technology, 39:502-511.
ID: 63761
Title: Effect of tree size, topography and shoot age on pest infestation and tree growth of Palas (Butea monosperma)
Author: S.Ghosal and N.N.Rajgopal
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 452- 454 (2020)
Subject: Effect of tree size, topography and shoot age on pest infestation and tree growth of Palas (Butea monosperma)
Keywords: Palas, Butea monosperma, Termites, Borer, Growth
Abstract: A bench mark survey was conducted in March, 2017 to generate information about health status of Palas trees (Butea monosperma) , the most important host tree of rangeeni lac insect (Kerria lacca Kerr.).The principal objective of the study was to identify factors responsible for poor principal objective of the study was to identify factors responsible for poor growth of this important tree. Infestation of termite and trunk borer is perennial problem for Palas trees. Therefore, information was generated under three different conditions (i) tree size i.e. small and big (mean trunk girth 74.3 cm and 151 cm) (ii) land topography i.e upland/lowland and (iii) tree with old/new shoots i.e. trees having shoots of >2 year or one year old. Land topography was found to have effect on termite infestation .In upland condition; termite galleries covered 50 per cent of the tree length, while the same value was merely 5.8 per cent in case of lowland. Smaller trees were 43 percent les infested in comparison to big ones. Similarly, upland trees were 2.5 times more infested than lowland. Number of live shoot and additive shoot diameter per prune point were also found to be higher in case of relatively smaller trees. Number of live shoot per prune point was recorded to be 3.6 and 3.1 in small and big sized trees, respectively and additive live shoot diameter was 52.4 and 43.2 mm per dead shoots were found higher in big sized trees. Only variation was observed in case of trees with old and new shoots. Only variation was observed in case of trees with old and new shoots, where 19.2 percent increase in average diameter was observed in newly emerged shoots i.e. pruned one year back. Better performance of smaller sized trees in terms of growth and pest resistance could be attributed to better rejuvenation power and vitality for being younger in age. Similarly, higher attack of pest in upland soils could be attributed to maintenance of poor health on relatively less fertile uplands.
Location: T E 15 New Biology building
Literature cited 1: yukea F.O., Pulleman M.M., Vanlauwe B., de Goedea R.G.M.,Six J., Csuzdi C. And Brussaard L.(2011) Agricultural management affects earthworm and termite diversity across humid to semi-arid-tropical zones, Agriculture, Ecosystems and Environment, 140: 148-154.
Ghosal S. (2017).Effect of shoot age, liming and potassium application for summer season lac cultivation on Butea monosperma trees, Indian Forester, 143 (3): 245-248.
Literature cited 2: Hemachandra I.I., Edirisinghe J.P., Karunaratne W.I.P., Gunatilleke C.S., and Fernando R.S. (2014).Diversity and Distribution of Termite Assemblages in Montane Forests in the Knuckle Region, Sri Lanka, International Journal of Tropical Insect Science, 34 (1): 41-52.
Yogi R.K., Alok K. and Singh A.K. (2018) .Lac., Plant Resins and Gums Statistics 2016: At a glance. ICAR-Indian Institute of Natural Resins and Gums, Ranchi (Jharkhand), India, Bulletin (Technical) 19/2018:01-80.
ID: 63760
Title: Role of growth Hormones in Unpredictable Reproductive behaviour of Cedrus deodara
Author: Karuna Phular, Rajesh Sharma and H.S.Ginwal
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 445- 451 (2020)
Subject: Role of growth Hormones in Unpredictable Reproductive behaviour of Cedrus deodara
Keywords: Cedrus deodara, Monoecious, Dioecious, Diplohaplontic, Axuxin, Gibberellic acid
Abstract: The diplohalontic life cycle of conifers with Cedrus deodara, as no exception alternates between reproductive phases and vegetative phase and results in good seed year once in every three to four years interval. The uncertainty of reproduction is not predictable and can be attributed to change in the hormonal levels in the trees at the time o f reproduction. Auxins and gibberellins play major role in flowering of day light plants like conifers, hence an attempt to understand the role of growth hormones leading to the unpredictable behaviour of Cedrus deodara was made, for which over 900 trees were marked at three different sites, viz. Cheog forest, HFRI campus in Himachal Pradesh and Chakrata forest in Uttarakhand and their reproductive behaviour was observed since the time of pollination to cone production. Samples from plants with different reproductive behaviour like, male, female, monoecious and vegetative were collected for extraction and estimation of growth hormones and find out the relationship between the levels of different hormones and cone production, if any.
Location: T E 15 New Biology building
Literature cited 1: Chaney W.R. (1993) .Cedrus libani, Cedar of leanon.Aror Age, 13 (1) : 26-27.
Chailakhyan M.K.H. (1968) .Flowering hormones of plants in biochemistry and physiology of plant growth substances. Edited byE.F.Wightman and Setterfield, Ottawa, Runge Press, 1317-1340.
Literature cited 2: Chailakhyam M.K.H. (1961) .Principles of ontogenesis and physiology of flowering in higher plants, Cand .J.Bot.39: 1817-1841.
Dallimore W. and Jackson A.B. (Revised by Harrison S.G).(1996) .A handbook of Coniterae and Ginkgoaceae. Edward Arnold (publishers) Ltd., London
ID: 63759
Title: Consumer’s preference of Secondary Timbers: Conjoint Analysis
Author: S.Varadha, Raj, M.Srinivasan, K.R.Ashok and R.Revathi
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 440- 444 (2020)
Subject: Consumer’s preference of Secondary Timbers: Conjoint Analysis
Keywords: Lesser utilized species, Consumer preference, Treated timbers, Untreated timbers
Abstract: Lesser-Utilized Species (LUS) is also called as secondary timbers which can substitute the scarce primary timbers in wood industries. This paper attempts to assess the consumer preference for both treated and untreated secondary timbers. The sample respondents of 130 were selected on a random basis from Coimbatore, Erode and the Nilgiris districts which comprised of sawmills, furniture manufacturing units, builders, and carpenters. The predominant secondary timbers were Neem and Eucalyptus in Coimbatore district, Mango an Vaggi in Erode district and Naval and Silver oak in the Nilgiri district. The choice of decision making to prefer secondary timbers were kind of timber (34.68%), price of timber (23.43%) , the status o treatment (21.9%) and its durability (20.40%) .Non-availability o seasoning units, lack of knowledge on the properties of secondary timbers, quality –related problems in the secondary timbers and presence of substitute products were the major problems for untreated secondary timbers, where as lack of remunerative price, high cost of inputs, lack of credit facilities and lack of awareness about treatments were the major constraints in production of treated secondary timbers.
Location: T E 15 New Biology building
Literature cited 1: FAO (2016) .The State of Food and Agriculture .Food and Agriculture Organization of the United Nations, Rome, Italy.
ITTO (2018).Export Round-up, ITTO TTM Report, 22 (1): 1-15 January Issue: 6.
Literature cited 2: Halbrendt C.K., Wirth F.F. and Vaughn G.F. (1991) Conjoint analysis of the mid-Atlantic food-fish market for farm-raised hybrid striped bass, Journal of Agricultural and Applied Economics, 23 (1) : 155-163.
JimenezGuerrero, Flipe,J. Gazquez-Abad,Carlos, J.Mondejar-Jimenez,Antonio,J., Ruben (2012).Consumer Preference for Olive-Oil Attribtess:A Review of the Empirical Literature Using a Conjoint Approach. In: Olive oil-constituents, Quality, health properties and bioconversions, Croatia, In Tech Europe, pp .233-246.
ID: 63758
Title: Challenges Presented by Pilgrimage sites and their impact on ecology of protected areas: A case study of Ranthambhore Tiger Reserve, Rajasthan
Author: Meenu Dhakad, Dharmendra Khandal, Dhanashree A.Paranjpe, Ishan Dhar
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 429- 439 (2020)
Subject: Challenges Presented by Pilgrimage sites and their impact on ecology of protected areas: A case study of Ranthambhore Tiger Reserve, Rajasthan
Keywords: Religious tourism, Ecological impact, Disturbance index, Protected areas, Anthropogenic pressure
Abstract: The traditional pilgrimages to religious sites are evolving into large scale religious tourism in many protected areas across India A growing influx of visitors leading to infrastructural development of these sites within protected areas ha potential to immensely damage the natural ecological balance. There are significant changes in the scale and frequency of visits to religious sites over past few decades creating an undue anthropogenic pressure on the ecology of protected areas. The present study tried to estimate the impact of religious tourism on the local ecology inside Ranthambhore Tiger Reserve (RTR) ,India Through direct field mapping and interview based surveys in RTR, 352 religious sites were documented. OUT OF 215 grids of 2x2 km laid down using GIS mapping, 135 (62.79%) grids had religious sites and the accompanying pilgrims in the critical tiger habitat. Disturbance indices for a subsample of randomly selected 42 religious sites were calculated considering ten potential disturbance factors. There was a positive correlation between number of annual visitors to the selected sites (N=42) and the amount of garbage found at the sites. Authors have suggested some measures to reduce the impact of religious tourism on local ecology.
Location: T E 15 New Biology building
Literature cited 1: Bhagat R. (2015) .What a temple can do to a forest .The Hindu Business Line.
https://www.thehindubusinessline.com/opinion/columns/what-a-temple-can-do-to-a-forest/article7526818.ece.Accessed on 21/7/2019
Bhatanagar A, Devi Pand George P (2016) .Impact of Mass Bathing and Religious activities on water quality index of prominent water bodies: A Multi location study in Haryana, India. International Journal of ecology.Vol.2016.1-8.
Literature cited 2: Bhattacharya S. (2014) .Forest and biodiversity conservation in ancient Indian culture: A review based on old texts and archaeological evidences.J.Int.Letters of Social and Humanistic Sciences, 30: 35-46.
Chakraborty J. (2014) .Un-polluting our tiger forests.WWF https://www.wwfindia.org/about_wwf/critical_regions/terai_arc_landscape/news/?NewsID=11701.Accessed on7/7/2019.
ID: 63757
Title: Diversity and distribution of Hydrophytes and Halophytes in Khijadiya Wetland, Jamnagar, Gujrat (India)
Author: R.V. Gujjar, Ketan Tatu, Ashok Suthar and R.D.Kammboj
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 425- 428 (2020)
Subject: Diversity and distribution of Hydrophytes and Halophytes in Khijadiya Wetland, Jamnagar, Gujrat (India)
Keywords: Community, Diversity, Halophyte, Hydrophyte, Khijadiya, Wetland
Abstract: Khijadiya is a wetland having two different types of vegetation, i.e. hydrophytes growing in/around fresh water ponds and halophytes growing in/near intertidal mudflats. A study was conducted on the diversity and community composition of hydrophytes and halophytes in Khijadiya wetland. A total of 12 hydrophytes and 10 halophytes were recorded. The fresh water area was dominated by the emergent hydrophytes like Bolbnoschoenus maritimus, Fimbrystylis feruginea and Cyperus difformis where as the Saline habitat was dominated mainly by halophyte (mangrove) species like Avicennia marina. The entire wetland area was endowed with various community groups e.g Bolboshoenus maritimus-Fimbrystylis ferruginea cyperus difformis community (a freshwater community) and Avicennia marina community (a saline water community)
Location: T E 15 New Biology building
Literature cited 1: Cook C.D.K. (1996) .Aquatic and wetland plants of India. London; Oxford University Press.
Finlaysion M., Cruz R.D., Davidson N., Alder J., Cork S., De Groot R.S., Leveque C., Milton, G.R., Peterson G., Pritchard D. and Ratner B.D.(2005) ,Millennium Ecosystem Assessment :Ecosysems and Human well-being :Wetlands and Water synthesis.
Literature cited 2: Joshi A.J.(2011) .Monograph on Indian Halophytes .Ocean and Atmospheric Science and Technology Cell. Dept. of Life Science, Bhavnagar University, India.140p.
Keough J.R., Thompson T.A., Guntenspergen G.G.,Wilcox D.A. (1999). Hydrogeomorphic factors are ecosystem responses in coastal wetlands of the Great Lakes. Wetlands, 19:821-834.
ID: 63756
Title: Tree Diversity and carbon stock assessment of college campus Sirsi, Karnataka (India)
Author: Pawn Kumar Poonia, Susmita Subba, Manjula S.Nilajagi and M.Hanumantha
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 419- 424 (2020)
Subject: Tree Diversity and carbon stock assessment of college campus Sirsi, Karnataka (India)
Keywords: Biomass, Carbon stock, COF Campus, Dominant, Diversity.
Abstract: The present study was carried out to assess the tree diversity and carbon stock at college of Forestry (COF) campus Sirsi, India. The tree biomasss and carbon stock were determined by non-destructive method. A total of 93 tree species with 682 individuals belonging to 93 genera from 47 families were identified. The dominant family was Lamiaceae and the species was Tectona grandis (n=100), followed by Cocos nucifera n=77) and Eucalyptus sps (n=53).The total biomass and carbon stock (AGB and BGB) from 682 trees was 395.02 tons and 197 .51 tons respectively in the entire area. The tree species Tectona grandis ( 40.89 tons) shared maximum carbon stock followed by Bamboo ( 4.91 tons) , Samanea saman ( 1.60 tons) ,Dlabergia latifolia ( 1.42 tons) , Delonix regia ( 1.24 tons) ,Alanthus malabarica ( 1.08 tons) .The study concluded that the tree species found in the campus make an important contribution in conserving diversity and helps to maintain the carbon stock in the College Campus.
Location: T E 15 New Biology building
Literature cited 1: Chaval B.L.and Rasal G.B. (2012) .Carbon sequestration potential of young Annona reticulate and Annona squamosa from University campus of Aurangabad.Int.J. of Physical and Social Sciences, 2 (3) : 193-198.
Chavan B.L. and Rasal G.B. (2011) .Sequestered Carbon Potential and Status of Eucalyptus Tree. Int. J. of Applied Engineering and Technology, 1 (1):41-47.
Literature cited 2: Deb D., Deb S., Debbarma J. and Datta B.K. (2016) .Tree Species Richness and Carbon stock in Tripura University Campus, Northeast India. J. of Biodiversity Management & Forestry.5: 4.DOI:10.4172/2327-4417.1000167.
FSI (2017) .India State of Forest Survey Report, 2017.Forest Survey o India ( FSI) ,Dehradun ,India .
ID: 63755
Title: Changes in the population structure and growing stock in different Deodar Forests of Garhwal Himalaya: A re-visitation study over 15 years
Author: Gaurav Chand Ramola, V.P.Khanduri, Yogendra singh Gusain, Digvijay Rathod and Prajapati Dhaval
Editor: Aarti Chaudhary
Year: 2020
Publisher: Indian Council of Forestry Research & Education.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 410- 418 (2020)
Subject: Changes in the population structure and growing stock in different Deodar Forests of Garhwal Himalaya: A re-visitation study over 15 years
Keywords: Revisitation, Garhwal Himalaya, Growing stock, Volume and Enumeration
Abstract: The present study was conducted by recognizing GPS location of the earlier study as the re-visitation study, which was aimed to understand the changes in population structure and growing stock of Cedrus deodara population structure and growing a period of 15 years. The changes in population structure and growing stock was assessed by laying out five 0.1 ha sample plots on each location. Thus, a total of 25 sample plots five on each site) were laid out to observe the changes in structure of growing stock under different sets of environment conditions. Enumeration o trees for volume, population structure and growing stock variation was done by measuring girth and height individually for all the trees in the sample plots. The results have shown that the highest total growing stock value (1132.8 ±35.58 m3/ha) among all the diameter classes were recorded in Dewarikhal area (2300 m amsl) in Uttarakashi district with the highest total basal cover (T.B.C.) (79.61 ± 1.78 m2/ha) of C.deodara. On the other hand, the lowest growing stock value (484.32m3/ha) was observed in Devidhar area (1900 m amsl) in Rudraprayag district whereas the lowest T.B.C (53.22 ±8.38 m2/ha) and highest density (420 ±8.94 trees/ha) of C.deodara was also recorded in Devidhar. There was a net increment in growing stock of 218.08 m3/ha at Ghimtoli, 302.8 m3/ha at Dhanolti, 371.15 m3/ha at Dewarikhal, 216.57 m3/ha at Devidhar and 484.32 m3/ha at Jhandidhar in a re-visitation study over 15 years.
Location: T E 15 New Biology building
Literature cited 1: Baduni N.P. (1996) .Growing stock variation in different forest cover types of Pauri Garhwal.Unpublished D.PhilThesis HNBGU, Srinagar (Garhwal) Uttaranchal, India.
Beer C.Lucht W; Schmullius C. And Shvidenko A. (2006) .Small Net Carbon Dioxide Uptake by Russian Forests during 1981-1999.Geophysical Research Letters, 33, Article ID: L15403.
Literature cited 2: Bhatt A. Sharma C.M and Khanduri V.P. (2000) Growing stock variation in different Cedrus deodara forests of Garhwal, Himalaya. Indian Forester, 218 (8):903-916.
Cain S.A. (1950). Life forms and photoclimate .Bot.Rev., 16: 1-032.
ID: 63754
Title: Inventory of invasive alien plants in India
Author: Vinay Kant Mishra
Editor: Aarti Chaudhary
Year: 2020
Publisher: Current Science Association and Indian Academy of Sciences.
Source: ENVIS, CES & EWRG, CES
Reference: The Indian Forester Vol. 146 (5) 378- 384 (2020)
Subject: Inventory of invasive alien plants in India
Keywords: Invasive alien plant species, Inventory, Database, Native range.
Abstract: Invasive allen plant species (IAPS) are serious threat to biodiversity, ecosystems and economies. In India, various publications and databases including those of BSI, NBA, ENVIS centres, MoEF & CC and few state level inventories etc. give variable and very less number of IAPS invasive Alien Plants in India. In present paper inventory of IAPS of India is prepared based on present available information for various parts of country. Total 1059 IAPS belonging to 587 genera and 142 families have been documented from various parts of India till now. The scientific names, their synonyms appeared in various publications and native range is also being given. In terms of number of species, Asteraceae (131 species), Poaceae (103 species) and Fabaceae (76 species) are most dominant families and Solanum (21 species), Cyperus (20 species) and Ipomoea (19species) are most dominant genera. The species of North and South America nativity are most dominant (184 species), followed by fro-Eurasian (164 species), Asian (160 species) and Afro-asian (84 species) nativity.
Location: T E 15 New Biology building
Literature cited 1: Andrabi S.M., Reshi Z.A., Shah M.A., and Quereshi S. (2015) Studying the patterns of alien and native floras of some habitats in Srinagar city, Kashmir, India. Ecological Proceses, 4 (2) : 2-12.
Barua I.C., Deka J. and Devi M.(2013 Invasive Weeds and Vegetation Dynamics in Assam. In: Proceeding: 24th Asian-Pacific Weed Society Conf. Bandung, Indonesia-166-170.
Literature cited 2: Bennet S.S.R., Naithani H.Band Raizada M.B. (1978) .Parthenium L. in India-A review and history Indian Journal of Forestry, 1 (2): 128-131.
Bhatt J.R., Singh J.S, Tripathi R.S., Singh S.Pand Kohli R.K. (2012) .Invasive Alien Plants: An ecological Appraisal for the Indian Subcontinent.CAB International.