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Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
              Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                    Vol. 3, Issue 1, January -February 2013, pp.1104-1112

      Integrated Land and Watershed Development of Dhobai
     Watershed in Dumka District, Jharkhand-a GIS-Geonomic
                            analysis
                        Bhaskar Das1 and Reshma.Chakraborty2
        1- Senior Research Fellow, Department of Geography, Visva-Bharati University, Santiniketan
            2- Senior Research Fellow, West Bengal State Council of Science and Technology, DST.
                                            Govt. of West Bengal.


ABSTRACT
        Land and Water Resources Management            and sustained production with the minimum hazard to
imply rational utilisation of land and water           natural resources and environment.
resources for optimal and sustained production
with the minimum hazard to natural resources           2.0 Aims and Objectives
and environment. An integrated and reliable GIS-                The ultimate aim of the project is to study
geonomic database has been designed and                different elements of land and water resources for
generated for optimal planning, proper                 their management towards development and planning
development and management of Dhobai                   purposes of the study area.
watersheds (23°45’ N to 24 ° 45’ N; 86 ° 15’ E to      The main objective of the programme is to generate
87° 45’ E) ,a part of Mayurakshi river basin in        up to date thematic information on basic natural
Dumka district, Jharkhand. Knowledge of                resource potential on watershed basis, for facilitating
drainage system, land use/Land cover and hydro-        land and water resources management designing
geomorphology and other terrain attributes under       towards sustainable development planning.
this watershed are very much important for
planning and management activities.                    3.0 Study Area
                                                                 Dumka district (23°45’ N to 24 ° 45’ N; 86 °
Key words: Watershed management, Geonomy,              15’ E to 87° 45’ E) is one of the four districts of
GIS, TIN                                               Jharkhand which have been curved out of erstwhile
                                                       Santhal Pargana.
1.0 Introduction                                       The present study area, Dhobai Watershed forms a
          Land and water are essential resources for   part of Mayurakshi river basin in the State of
day to day activities. Knowledge of drainage, land     Jharkhand. Politically, the study area is located
use/land cover and hydro-geomorphology and other       covering parts of the Saryeahat and Ramgarh Blocks
terrain attributes are important for planning and      of District Dumka, Jharkhand.
management activities. Remote Sensing and GIS both     The study area lies between the 86 degree59’ 02.9”E
from the conventional sources has proved to be an      to 87 degree 15’ 17.25” E and 87degree 08’28.04”E
effective tool in planning for Land and Water          to 87degree 10’0.308”E Longitude and 24degree
Resources management.                                  25’37.50”N to 24degree 25’30.13”N and 24degree
Land and Water Resources Management imply              33’17.11”N to 24 degree 33’3.77”N.The study area is
utilisation of land and water resources for optimal    about 306.87 sq.km.




                                                                                             1104 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
              Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                    Vol. 3, Issue 1, January -February 2013, pp.1104-1112




4.0 Methodology
          The micro level interpretation through           questionnaires through intensive field survey. The
integration and analysis of the various thematic           study of imperial observation can has been done
information provided by the IRS 1D satellite data,         very carefully through spatial data collection in
IRS P6, LISS-III satellite image (precision geocoded       this watershed area.
images) has been used as the input for preparation of
thematic maps or layer. In order to prepare the maps       iii) Post-field study: in corresponding the various
with attributes as stated in methodology, will be three    thematic maps (scale 1:50000) has been prepared
phases for carrying out the whole work – i) Pre-field,     from         corresponding        Toposheet    No-
ii) Post-field, iii) after Digitisation.                   (72P02,72P03,72L14-on scale 1:50000) and up-to-
A systematic methodological principle              was     date multiseasonal IRS-P6 LISS-III imageries
followed in this project work. This can be                 (Hardcopy) as well as digital data with subsequent
explaining as follows:                                     ground checks and existing collateral data
i) Pre-field study: this study area as selected earlier,   appropriately to find out the actual scenario.
was identified from corresponding Toposheet No-
(72P02,72P03,72L14-on scale 1:50000) and the               4.1 Flow Chart of Methodology
spatial information have been collected from                   In the present study two basic methods which has
different Govt. office like- Deptt.of Science and               been applied-
Technology- Kolkat,etc.                                         A. Visual Image Interpretation and
ii) Field study: Primary data were generated by                 B. Digital Image Interpretation.
interviewing people upon property desire




                                                                                                1105 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
            Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                  Vol. 3, Issue 1, January -February 2013, pp.1104-1112
                                      Preparation of thematic maps
                                      through visual interpretation

                                Georeferencing of toposheet on GIS
                                platform using Erdas 8.4 software

                                  Digitisation of contours for TIN map

                    Creation of digital base of thematic maps on ArcGis 9.2 software

                  Preparation of bar graph
                  and database design                          Preparation of map layout


                 Integration and analysis of                     Creation of TIN and
                 all spatial &non-spatial data                   Correlation map

                               Preparation of a master plan of complete improvement
                               and development of land and water resources
                               management
                 Fig-1: Flow chart showing methodology of land and water resources plan




5.0 Database
        The present study is based on Survey of India Toposheet No- 72P02,72P03,72L14 (1:50,000), up-
           to-date multiseasonal IRS P6 LISS III 15th March 2005 and 10th November 2005 satellite
           imageries (hardcopy), field verification and other collateral data
        Category wise area for Land use / Land cover and Geomorphologic maps has been prepared with
           the help of ArcGIS 9.2 software.
        The calculated data are used as input data to prepare bar graphs for quick evaluation of area
           occupied by each unit in individual theme maps of the study area.
        The Data’s that are being used are:
        Survey Of India Topographical Sheets (72P02,72P03,72L14)
        Satellite Imageries IRS P6 LISS-III, (November and March 2005 ).
        Other collateral data.

6.0 Regional Physiographic Backdrop
  6.1 Geomorphology: This map classifies the terrain into various homogeneous units which are termed as
  terrain units/geomorphic units. These terrain units are very much useful for the optimal and scientific
  utilisation of natural resources and environmental management.
       The geomorphologic units that are identified from the concerned study area are-
  1.   Valley Fill
  2.   Denudational Hill
  3.   Residual Hill
  4.   Pediment
  5.   Lateritic Upland Upper
  6.   Lateritic Upland Lower
  7.   Burried pediment shallow




                                                                                           1106 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
          Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                Vol. 3, Issue 1, January -February 2013, pp.1104-1112

                         Table 1; Geomorphological details

                     Geomorphology        Area
                     Categories           ( sq.km)   Percentage
                     River                   2.831       0.922
                     Gully Head Bund         0.396        0.13
                     Valley Fill            14.684        4.78
                     Residual Hill           3.181        1.04
                     Denudational Hill      10.711        3.49
                     Pediment                3.017        0.98
                     Hill wash Deposit      10.519        3.43
                     Lateritic   Upland
                     Upper                 27.585        8.99
                     Lateritic   Upland
                     Lower                  5.809         1.9
                     Burried Pediment
                     Shallow                136.7        44.55
                         Total Area        306.872       100




                                                                         1107 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
            Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                  Vol. 3, Issue 1, January -February 2013, pp.1104-1112




                                Fig.2-Geomorphology map and field photo

6.2 Drainage Map
The master stream, Dhobai river has its source near Chihutiya village in the north western part of the study
area. It flows in a general SE direction, broadly parallel to the general strike trends of the prevalent rock
formations, but locally guided by major joints and faults. The Hardia Nala originates near Kanjo village and
Murko Nala originates near Madhuban, both these Nalas joins the master stream as left-hand tributaries. This
combined flow is known as Dhobai Nadi and it ultimately joins Matihara Nadi near Jhilua village, a tributary
to the Mayurakshi River. Two important drainage patterns have been identified in the study area are Dendritic
Pattern and Radial Pattern. So the effect and impact of socio – cultural and economical life is fully
determined by the Dhobai river and little effect by Hardia Nala.




                                     Fig.3-Drainage map and field photo




                                                                                             1108 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
              Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                    Vol. 3, Issue 1, January -February 2013, pp.1104-1112

6.2 Climate
  The climate of the region is characterised by a hot summer and well distributed seasonal rainfall. The district
  receives an annual rainfall of 1500 mm.. South-western monsoon is responsible for the occurrence of rainfall.
  During June to September near about 80% annual rainfall occurs. The month of August witnesses highest
  rainfall. May is the hottest month with During winter season the temperature varies between 16° to 21° C and
  during summer season it varies between 22 to 32 0C. January is the coldest month of the region. Annual and
  diurnal range of temperature is quite high in this district.

6.3 Soil
  The soils occurring in different landforms have been characterised during soil resource mapping of the state
  on 1:250,000 scale (Haldar et al. 1996) and three soil orders namely Entisols, Inceptisols and Alfisols were
  observed in Dumka district (Fig.1 and table 1). Alfisols were the dominant soils covering 43.9 percent of
  TGA followed by Inceptisols (43.8 %) and Entisols (10.0 %).

6.4 Land use:
   Total geographical area of the district is 5.58 lakh hectares out of which nearly 40% area comes under net
  cultivated area, 11% covered forests and the rest 49% area falls under barren, cultivable waste, pasture and
  other agricultural use. The details of land use pattern in the district are presented in table 2.1. 0ut of 2.18 lakh
  hectare net cultivable land, about 50% is under upland situation, 30% under medium land and 20% under low
  land situation.



Table 2: Land use/Land cover On Sample Two Block (i.e. Sareayahat Block And Ramgarh Block)

                                                       LANDUSE/LANDCOVER ON SAREAYAHAT BLOCK
 Land use/Land         Area In
 Cover Categories       sq.km       Percentage
 River                  2.831         0.922
 Waterbodies            0.772         0.251
 Settlement            25.456         8.295
 Single
 Crop/Kharif           202.332         65.93
 Open Forest           11.508           3.75
 Scrub Forest           1.099          0.358
 Land With Scrub        44.81         14.6022
 Land     Without
 Scrub                  17.43         5.679
 Stony Waste            0.637         0.2075
 TOTAL AREA            306.872         100

 LANDUSE/LANDCOVER ON RAMGARH BLOCK
  Land use Using Secondary
  Data Of Sareayahat Block         Area
  Forest area                     1258.95
  Wasteland and land available
  other than         agricultural
  purpose                         1645.32
  Land utilized for non
  agricultural purpose            2527.68
  Cultivable infertile land       1179.44
  Permanent pasture and other
  land                            1897.2
  Other agricultural land upto
  2 to 5 yr                       3489.82
  Current fallow(1 yr)            4356.59
  Cultivable land ((3+4..+6+8)        22756.23




                                                                                                     1109 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
              Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                    Vol. 3, Issue 1, January -February 2013, pp.1104-1112

7.0 Co-Relation Regarding Process of Land and Watershed Management

7.1 Watershed Concept

Watershed is a technical term used by the British to denote a common drainage point. It is a hydro geological
unit. In American terminology, it is referred to as Catchment Area. Watershed is the line separating neighboring
drainage basins (catchments). In hilly country, the divide lies along topographical peaks and ridges, but in flat
country (especially where the ground is marshy) the divide may be invisible – just a more or less notional line
on the ground on either side of which falling raindrops will start a journey to different rivers, and even to
different sides of a region or continent. Drainage divides are important geographical and often also political
boundaries. Roads (such as ridge ways) and rail tracks often follow divides to minimize grades (gradients), and
to avoid marshes and rivers.

                           Table 3:Co-relation between sub-surface water and irrigation
     Block         Utilisable       Net             Net draft      Irrigation      Ultimate         Ground
                   ground           irrigation      (Ha.M)         potential       irrigation       water
                   water            requirem                       created         potential to     balance
                   resources        ent (m.)                       (Hact.)         be created       (Hact.) (6-
                   (Ha.M)                                          (4/3)           (Hact.)          5)
                                                                                   (2/3)
     1             2                3               4              5               6                7
     Sareayahat    1,731            0.4             66             165             4328             4163
     Ramgarh       2586             0.4             25.2           63              6465             6402

  The other maps that have been prepared for co-relation between physiographic feature and land use/land cover
  are
    Contour Map has been prepared by taking contour information by Survey of India Toposheet No: 72P02,
  72P03 and it has been digitized using Arcview 3.2a software, in GIS Platform.
  Triangulated Irregular Network (TIN) Map has been prepared with the help of contour information.




    Fig.4-Contiur map and TIN Generation




                                                                                                  1110 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
                Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                      Vol. 3, Issue 1, January -February 2013, pp.1104-1112

7.2 Co-relation                                            (vi)     Cultivation: On sloping of land without
(i)      Co-relation between Triangulated Irregular        adequate precautions, cultivation without agronomic
      Network and Drainage of Dhobai Watershed             measures to conserve soil and water, cultivation
      region depicts that the Radial drainage pattern is   along susceptible nalla banks, cultivation of erosion-
      observed around the Residual and Denudational        permitting crops, over-cropping without soil fertility
      Hills of this watershed.                             replenishment, faulty agricultural techniques etc.
(ii) The Dendritic drainage pattern is also observed       (vii)    Grass land: Excessive and uncontrolled
      throughout the study area.                           grazing, growth of weeds, development of cattle
(iii) The elevated region Radial pattern of drainage       tracks causing damage and compaction of soil
      comes down and unites with dendritic pattern of      resulting in lower infiltration rates, fires, theft etc.
      drainage.
                                                           (viii)   Forest: Excessive and uncontrolled grazing
(iv) Major portion (65.9 %) of the area (Single            which inhibits regeneration from seed or stock, clear
      crop/Kharif) of Land use/Land cover category         felling on steep slopes, destruction of forest land by
      which are mainly occupied by Burried Pediment
                                                           fires and thefts, biotic pressure for fuel, fodder, NTFP
      Shallow (44.55%) of geomorphic unit.
                                                           and small timber, drastic thinning of plantation along
(v) Area acquired by Land with Scrub (14.60%) of           slopes etc.
      Land use/Land cover category is almost
      occupied by Lateritic Upland Upper (8.99%) of        (ix)      Shifting cultivation: Shifting cultivation or
      geomorphic unit.                                     Jhum kheti practiced in certain areas of counties (like
(vi) The Open Forest (3.75%) of Land use category is       North East India etc.) has proved to be very
      present over the Residual hill (1.04%) and           damaging to protective and productive vegetation.
      Denudational hill (3.49%) of the geomorphic          This practice results in damage to the topsoil and
      unit.                                                inhibits the growth of grasses, shrubs and trees.
                                                           (x)      Non-cooperation of the community: Non-
                                                           Cooperation of the community in conserving,
7.3 Water Related Environmental Issues at                  protecting and enriching then ecosystem and CPR has
Dhobai Watershed                                           also resulted in most of the ills.

(i)      Changes in flow: Excessive abstractions of        Watershed management is required for the following
water from rivers and lakes for irrigation, urban          reasons for this two sample blocks are:
supply, inter-basin transfers, or other consumptive        1. To control damaging runoff.
purposes can significantly decrease downstream flow        2. To manage and utilize runoff for useful purposes.
rates and diminish aquifer recharge in Dhobai              3. To control erosion affecting reduction of sediment
watershed region.                                             production.
(ii)     Watershed degradation. Changes in land use        4. To moderate floods in the downstream area.
in watersheds can release large loads of sediments         5. To enhance groundwater storage wherever
and attached contaminants into waterways and as a             applicable, and
result of this degradation, downstream areas can           6. To appropriately use land resources in the
become blanketed in sediment.                                 watershed for other resources.
(iii)    Water quality: Diffuse (or non-point) source
pollution is also a major cause of contamination in        8.0 Formulation of Master Plan
many areas, especially where there is little               1.     Establishment of long-term objectives and
enforcement over the use of agro-chemicals sources              developmental targets/criteria-
are a threat to human health and environmental             a.   Explain the socio-economic scenarios and
health.                                                         constraints of development
(iv)     Riverine and estuarine system health:             b.   Discuss the planning objectives with respect to
Healthy riverine and estuarine systems require                  food production, industrial growth, public health
functioning wetlands, floodplains, lakes and riparian           improvement.
areas which mediate important services such as             c.   Relate basin planning objectives to the national
pollutant removal, amelioration of floods, and                  planning objectives.
provide habitat for economically important fauna and       d.   Establish water use as well as land use/land cover
flora corresponding through unscientific agricultural           priorities in various sectors.
and grazing activities and land use conversion.
(v)       Land Use: Uncontrolled, unplanned,               2. Preparation of Master Plan-
unscientific land use and interventions lead to            a. Discuss availability of surface and ground water
deterioration of the watershed area. Some of the              and their quality as appraisal
activities detrimental to watershed.                       b. Discuss present and future demand for water as
                                                              brought out.



                                                                                                  1111 | P a g e
Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and
                    Applications (IJERA)          ISSN: 2248-9622     www.ijera.com
                          Vol. 3, Issue 1, January -February 2013, pp.1104-1112

c. Carry out water balance for present as well as                 (eds), New Delhi: TERI (The Energy and
   future conditions at sub-basin and basin levels and            Resources Institute).
   at critical points.
                                                             3.   National    Remote     Sensing    Centre:
                                                                  Landuse/Landcover-50k          (2005-06),
3.      Alternate     developmental      scenarios     and
                                                                  Department of Space, Government of India.
      Evaluation –
a.    Various measures for water conservation and            4.   Chakraborty, P., 1999, Land Evaluation –
      distribution                                                Geoinformation: Pragmatic Input for
b.    Possibility of integrating various uses of water            Landuse Planning: Int. Confer. Vol.
c.    Possibility of integrating various reservoir                "Geoinformatics       Beyond     2000".Indian
      systems & Conjunctive use of surface and ground             Institute of Remote Sensing, Dehradun.
      water                                                       India, p. 187 – 196.
d.    Integration        of      environmental/ecological    5.   Deb, U., 1995, A new lithostratigraphic unit
      consideration                                               at the western fringe of West Bengal, India.
e.    Possibility/need of inter-basin transfer of water,          Indian Journal of Geology. Vol. 67, No. 4, p.
      recycling, recharging for augmenting                        282 – 288.
4. Selection of most promising alternative-
a. Impact of alternatives on plan objectives
b. Decisions analysis & Recommended plan of
   action

9.0 Conclusion:
          Development of water resources without
any scientific planning leads to sharp depletion of
the resources and also degradation of quality.
Therefore a comprehensive and reliable scientific
data base management is a pre-requisite for proper
management and planning of Dhobai watershed.
Ultimately the proposed work will provide
guidelines to conserve develop and harness these
natural resources to minimise the adverse effect of
both natural hazard and anthropogenic interventions
for restoration of ecological balance of the fragile
environment under physical-social-economical-
cultural context.
          The issues noted above clearly need to be
addressed in a comprehensive manner as in a national
water resources management plan. Timing is critical
as the various groups are performing their studies
independently without much effort to coordinate. If
left unchecked, this process would not take advantage
of the synergy that could be developed if the projects
were developed with a common goal that would be
identified in the management plan under this region
watershed.


References
     1.       Rudraiah, Govinaiah, Vittala., (2008),
             Morphometry Using Remote Sensing and
             GIS Techniques In The Sub-Basins of Kagna
             River Basin, Gulburga District, Karnataka,
             India. J Indian soc. of Remote Sensing 36,
             351-360.
     2.      Seethapathi P.V, Dutta D, and Siva Kumar
             R., (2008), Hydrology of Small Watersheds




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Fo3111041112

  • 1. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 Integrated Land and Watershed Development of Dhobai Watershed in Dumka District, Jharkhand-a GIS-Geonomic analysis Bhaskar Das1 and Reshma.Chakraborty2 1- Senior Research Fellow, Department of Geography, Visva-Bharati University, Santiniketan 2- Senior Research Fellow, West Bengal State Council of Science and Technology, DST. Govt. of West Bengal. ABSTRACT Land and Water Resources Management and sustained production with the minimum hazard to imply rational utilisation of land and water natural resources and environment. resources for optimal and sustained production with the minimum hazard to natural resources 2.0 Aims and Objectives and environment. An integrated and reliable GIS- The ultimate aim of the project is to study geonomic database has been designed and different elements of land and water resources for generated for optimal planning, proper their management towards development and planning development and management of Dhobai purposes of the study area. watersheds (23°45’ N to 24 ° 45’ N; 86 ° 15’ E to The main objective of the programme is to generate 87° 45’ E) ,a part of Mayurakshi river basin in up to date thematic information on basic natural Dumka district, Jharkhand. Knowledge of resource potential on watershed basis, for facilitating drainage system, land use/Land cover and hydro- land and water resources management designing geomorphology and other terrain attributes under towards sustainable development planning. this watershed are very much important for planning and management activities. 3.0 Study Area Dumka district (23°45’ N to 24 ° 45’ N; 86 ° Key words: Watershed management, Geonomy, 15’ E to 87° 45’ E) is one of the four districts of GIS, TIN Jharkhand which have been curved out of erstwhile Santhal Pargana. 1.0 Introduction The present study area, Dhobai Watershed forms a Land and water are essential resources for part of Mayurakshi river basin in the State of day to day activities. Knowledge of drainage, land Jharkhand. Politically, the study area is located use/land cover and hydro-geomorphology and other covering parts of the Saryeahat and Ramgarh Blocks terrain attributes are important for planning and of District Dumka, Jharkhand. management activities. Remote Sensing and GIS both The study area lies between the 86 degree59’ 02.9”E from the conventional sources has proved to be an to 87 degree 15’ 17.25” E and 87degree 08’28.04”E effective tool in planning for Land and Water to 87degree 10’0.308”E Longitude and 24degree Resources management. 25’37.50”N to 24degree 25’30.13”N and 24degree Land and Water Resources Management imply 33’17.11”N to 24 degree 33’3.77”N.The study area is utilisation of land and water resources for optimal about 306.87 sq.km. 1104 | P a g e
  • 2. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 4.0 Methodology The micro level interpretation through questionnaires through intensive field survey. The integration and analysis of the various thematic study of imperial observation can has been done information provided by the IRS 1D satellite data, very carefully through spatial data collection in IRS P6, LISS-III satellite image (precision geocoded this watershed area. images) has been used as the input for preparation of thematic maps or layer. In order to prepare the maps iii) Post-field study: in corresponding the various with attributes as stated in methodology, will be three thematic maps (scale 1:50000) has been prepared phases for carrying out the whole work – i) Pre-field, from corresponding Toposheet No- ii) Post-field, iii) after Digitisation. (72P02,72P03,72L14-on scale 1:50000) and up-to- A systematic methodological principle was date multiseasonal IRS-P6 LISS-III imageries followed in this project work. This can be (Hardcopy) as well as digital data with subsequent explaining as follows: ground checks and existing collateral data i) Pre-field study: this study area as selected earlier, appropriately to find out the actual scenario. was identified from corresponding Toposheet No- (72P02,72P03,72L14-on scale 1:50000) and the 4.1 Flow Chart of Methodology spatial information have been collected from In the present study two basic methods which has different Govt. office like- Deptt.of Science and been applied- Technology- Kolkat,etc. A. Visual Image Interpretation and ii) Field study: Primary data were generated by B. Digital Image Interpretation. interviewing people upon property desire 1105 | P a g e
  • 3. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 Preparation of thematic maps through visual interpretation Georeferencing of toposheet on GIS platform using Erdas 8.4 software Digitisation of contours for TIN map Creation of digital base of thematic maps on ArcGis 9.2 software Preparation of bar graph and database design Preparation of map layout Integration and analysis of Creation of TIN and all spatial &non-spatial data Correlation map Preparation of a master plan of complete improvement and development of land and water resources management Fig-1: Flow chart showing methodology of land and water resources plan 5.0 Database  The present study is based on Survey of India Toposheet No- 72P02,72P03,72L14 (1:50,000), up- to-date multiseasonal IRS P6 LISS III 15th March 2005 and 10th November 2005 satellite imageries (hardcopy), field verification and other collateral data  Category wise area for Land use / Land cover and Geomorphologic maps has been prepared with the help of ArcGIS 9.2 software.  The calculated data are used as input data to prepare bar graphs for quick evaluation of area occupied by each unit in individual theme maps of the study area.  The Data’s that are being used are:  Survey Of India Topographical Sheets (72P02,72P03,72L14)  Satellite Imageries IRS P6 LISS-III, (November and March 2005 ).  Other collateral data. 6.0 Regional Physiographic Backdrop 6.1 Geomorphology: This map classifies the terrain into various homogeneous units which are termed as terrain units/geomorphic units. These terrain units are very much useful for the optimal and scientific utilisation of natural resources and environmental management. The geomorphologic units that are identified from the concerned study area are- 1. Valley Fill 2. Denudational Hill 3. Residual Hill 4. Pediment 5. Lateritic Upland Upper 6. Lateritic Upland Lower 7. Burried pediment shallow 1106 | P a g e
  • 4. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 Table 1; Geomorphological details Geomorphology Area Categories ( sq.km) Percentage River 2.831 0.922 Gully Head Bund 0.396 0.13 Valley Fill 14.684 4.78 Residual Hill 3.181 1.04 Denudational Hill 10.711 3.49 Pediment 3.017 0.98 Hill wash Deposit 10.519 3.43 Lateritic Upland Upper 27.585 8.99 Lateritic Upland Lower 5.809 1.9 Burried Pediment Shallow 136.7 44.55 Total Area 306.872 100 1107 | P a g e
  • 5. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 Fig.2-Geomorphology map and field photo 6.2 Drainage Map The master stream, Dhobai river has its source near Chihutiya village in the north western part of the study area. It flows in a general SE direction, broadly parallel to the general strike trends of the prevalent rock formations, but locally guided by major joints and faults. The Hardia Nala originates near Kanjo village and Murko Nala originates near Madhuban, both these Nalas joins the master stream as left-hand tributaries. This combined flow is known as Dhobai Nadi and it ultimately joins Matihara Nadi near Jhilua village, a tributary to the Mayurakshi River. Two important drainage patterns have been identified in the study area are Dendritic Pattern and Radial Pattern. So the effect and impact of socio – cultural and economical life is fully determined by the Dhobai river and little effect by Hardia Nala. Fig.3-Drainage map and field photo 1108 | P a g e
  • 6. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 6.2 Climate The climate of the region is characterised by a hot summer and well distributed seasonal rainfall. The district receives an annual rainfall of 1500 mm.. South-western monsoon is responsible for the occurrence of rainfall. During June to September near about 80% annual rainfall occurs. The month of August witnesses highest rainfall. May is the hottest month with During winter season the temperature varies between 16° to 21° C and during summer season it varies between 22 to 32 0C. January is the coldest month of the region. Annual and diurnal range of temperature is quite high in this district. 6.3 Soil The soils occurring in different landforms have been characterised during soil resource mapping of the state on 1:250,000 scale (Haldar et al. 1996) and three soil orders namely Entisols, Inceptisols and Alfisols were observed in Dumka district (Fig.1 and table 1). Alfisols were the dominant soils covering 43.9 percent of TGA followed by Inceptisols (43.8 %) and Entisols (10.0 %). 6.4 Land use: Total geographical area of the district is 5.58 lakh hectares out of which nearly 40% area comes under net cultivated area, 11% covered forests and the rest 49% area falls under barren, cultivable waste, pasture and other agricultural use. The details of land use pattern in the district are presented in table 2.1. 0ut of 2.18 lakh hectare net cultivable land, about 50% is under upland situation, 30% under medium land and 20% under low land situation. Table 2: Land use/Land cover On Sample Two Block (i.e. Sareayahat Block And Ramgarh Block) LANDUSE/LANDCOVER ON SAREAYAHAT BLOCK Land use/Land Area In Cover Categories sq.km Percentage River 2.831 0.922 Waterbodies 0.772 0.251 Settlement 25.456 8.295 Single Crop/Kharif 202.332 65.93 Open Forest 11.508 3.75 Scrub Forest 1.099 0.358 Land With Scrub 44.81 14.6022 Land Without Scrub 17.43 5.679 Stony Waste 0.637 0.2075 TOTAL AREA 306.872 100 LANDUSE/LANDCOVER ON RAMGARH BLOCK Land use Using Secondary Data Of Sareayahat Block Area Forest area 1258.95 Wasteland and land available other than agricultural purpose 1645.32 Land utilized for non agricultural purpose 2527.68 Cultivable infertile land 1179.44 Permanent pasture and other land 1897.2 Other agricultural land upto 2 to 5 yr 3489.82 Current fallow(1 yr) 4356.59 Cultivable land ((3+4..+6+8) 22756.23 1109 | P a g e
  • 7. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 7.0 Co-Relation Regarding Process of Land and Watershed Management 7.1 Watershed Concept Watershed is a technical term used by the British to denote a common drainage point. It is a hydro geological unit. In American terminology, it is referred to as Catchment Area. Watershed is the line separating neighboring drainage basins (catchments). In hilly country, the divide lies along topographical peaks and ridges, but in flat country (especially where the ground is marshy) the divide may be invisible – just a more or less notional line on the ground on either side of which falling raindrops will start a journey to different rivers, and even to different sides of a region or continent. Drainage divides are important geographical and often also political boundaries. Roads (such as ridge ways) and rail tracks often follow divides to minimize grades (gradients), and to avoid marshes and rivers. Table 3:Co-relation between sub-surface water and irrigation Block Utilisable Net Net draft Irrigation Ultimate Ground ground irrigation (Ha.M) potential irrigation water water requirem created potential to balance resources ent (m.) (Hact.) be created (Hact.) (6- (Ha.M) (4/3) (Hact.) 5) (2/3) 1 2 3 4 5 6 7 Sareayahat 1,731 0.4 66 165 4328 4163 Ramgarh 2586 0.4 25.2 63 6465 6402 The other maps that have been prepared for co-relation between physiographic feature and land use/land cover are Contour Map has been prepared by taking contour information by Survey of India Toposheet No: 72P02, 72P03 and it has been digitized using Arcview 3.2a software, in GIS Platform. Triangulated Irregular Network (TIN) Map has been prepared with the help of contour information. Fig.4-Contiur map and TIN Generation 1110 | P a g e
  • 8. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 7.2 Co-relation (vi) Cultivation: On sloping of land without (i) Co-relation between Triangulated Irregular adequate precautions, cultivation without agronomic Network and Drainage of Dhobai Watershed measures to conserve soil and water, cultivation region depicts that the Radial drainage pattern is along susceptible nalla banks, cultivation of erosion- observed around the Residual and Denudational permitting crops, over-cropping without soil fertility Hills of this watershed. replenishment, faulty agricultural techniques etc. (ii) The Dendritic drainage pattern is also observed (vii) Grass land: Excessive and uncontrolled throughout the study area. grazing, growth of weeds, development of cattle (iii) The elevated region Radial pattern of drainage tracks causing damage and compaction of soil comes down and unites with dendritic pattern of resulting in lower infiltration rates, fires, theft etc. drainage. (viii) Forest: Excessive and uncontrolled grazing (iv) Major portion (65.9 %) of the area (Single which inhibits regeneration from seed or stock, clear crop/Kharif) of Land use/Land cover category felling on steep slopes, destruction of forest land by which are mainly occupied by Burried Pediment fires and thefts, biotic pressure for fuel, fodder, NTFP Shallow (44.55%) of geomorphic unit. and small timber, drastic thinning of plantation along (v) Area acquired by Land with Scrub (14.60%) of slopes etc. Land use/Land cover category is almost occupied by Lateritic Upland Upper (8.99%) of (ix) Shifting cultivation: Shifting cultivation or geomorphic unit. Jhum kheti practiced in certain areas of counties (like (vi) The Open Forest (3.75%) of Land use category is North East India etc.) has proved to be very present over the Residual hill (1.04%) and damaging to protective and productive vegetation. Denudational hill (3.49%) of the geomorphic This practice results in damage to the topsoil and unit. inhibits the growth of grasses, shrubs and trees. (x) Non-cooperation of the community: Non- Cooperation of the community in conserving, 7.3 Water Related Environmental Issues at protecting and enriching then ecosystem and CPR has Dhobai Watershed also resulted in most of the ills. (i) Changes in flow: Excessive abstractions of Watershed management is required for the following water from rivers and lakes for irrigation, urban reasons for this two sample blocks are: supply, inter-basin transfers, or other consumptive 1. To control damaging runoff. purposes can significantly decrease downstream flow 2. To manage and utilize runoff for useful purposes. rates and diminish aquifer recharge in Dhobai 3. To control erosion affecting reduction of sediment watershed region. production. (ii) Watershed degradation. Changes in land use 4. To moderate floods in the downstream area. in watersheds can release large loads of sediments 5. To enhance groundwater storage wherever and attached contaminants into waterways and as a applicable, and result of this degradation, downstream areas can 6. To appropriately use land resources in the become blanketed in sediment. watershed for other resources. (iii) Water quality: Diffuse (or non-point) source pollution is also a major cause of contamination in 8.0 Formulation of Master Plan many areas, especially where there is little 1. Establishment of long-term objectives and enforcement over the use of agro-chemicals sources developmental targets/criteria- are a threat to human health and environmental a. Explain the socio-economic scenarios and health. constraints of development (iv) Riverine and estuarine system health: b. Discuss the planning objectives with respect to Healthy riverine and estuarine systems require food production, industrial growth, public health functioning wetlands, floodplains, lakes and riparian improvement. areas which mediate important services such as c. Relate basin planning objectives to the national pollutant removal, amelioration of floods, and planning objectives. provide habitat for economically important fauna and d. Establish water use as well as land use/land cover flora corresponding through unscientific agricultural priorities in various sectors. and grazing activities and land use conversion. (v) Land Use: Uncontrolled, unplanned, 2. Preparation of Master Plan- unscientific land use and interventions lead to a. Discuss availability of surface and ground water deterioration of the watershed area. Some of the and their quality as appraisal activities detrimental to watershed. b. Discuss present and future demand for water as brought out. 1111 | P a g e
  • 9. Bhaskar Das, Reshma.Chakraborty / International Journal of Engineering Research and Applications (IJERA) ISSN: 2248-9622 www.ijera.com Vol. 3, Issue 1, January -February 2013, pp.1104-1112 c. Carry out water balance for present as well as (eds), New Delhi: TERI (The Energy and future conditions at sub-basin and basin levels and Resources Institute). at critical points. 3. National Remote Sensing Centre: Landuse/Landcover-50k (2005-06), 3. Alternate developmental scenarios and Department of Space, Government of India. Evaluation – a. Various measures for water conservation and 4. Chakraborty, P., 1999, Land Evaluation – distribution Geoinformation: Pragmatic Input for b. Possibility of integrating various uses of water Landuse Planning: Int. Confer. Vol. c. Possibility of integrating various reservoir "Geoinformatics Beyond 2000".Indian systems & Conjunctive use of surface and ground Institute of Remote Sensing, Dehradun. water India, p. 187 – 196. d. Integration of environmental/ecological 5. Deb, U., 1995, A new lithostratigraphic unit consideration at the western fringe of West Bengal, India. e. Possibility/need of inter-basin transfer of water, Indian Journal of Geology. Vol. 67, No. 4, p. recycling, recharging for augmenting 282 – 288. 4. Selection of most promising alternative- a. Impact of alternatives on plan objectives b. Decisions analysis & Recommended plan of action 9.0 Conclusion: Development of water resources without any scientific planning leads to sharp depletion of the resources and also degradation of quality. Therefore a comprehensive and reliable scientific data base management is a pre-requisite for proper management and planning of Dhobai watershed. Ultimately the proposed work will provide guidelines to conserve develop and harness these natural resources to minimise the adverse effect of both natural hazard and anthropogenic interventions for restoration of ecological balance of the fragile environment under physical-social-economical- cultural context. The issues noted above clearly need to be addressed in a comprehensive manner as in a national water resources management plan. Timing is critical as the various groups are performing their studies independently without much effort to coordinate. If left unchecked, this process would not take advantage of the synergy that could be developed if the projects were developed with a common goal that would be identified in the management plan under this region watershed. References 1. Rudraiah, Govinaiah, Vittala., (2008), Morphometry Using Remote Sensing and GIS Techniques In The Sub-Basins of Kagna River Basin, Gulburga District, Karnataka, India. J Indian soc. of Remote Sensing 36, 351-360. 2. Seethapathi P.V, Dutta D, and Siva Kumar R., (2008), Hydrology of Small Watersheds 1112 | P a g e