Awareness Workshopon

“Integrated Water ResourcesManagement Applications developed under

Hydrology Project-II”

January 29, 2014

By Central Water Commission

Hydrological Design Aids (Surface Water)

Objectives of HDA-SW

• Main objective of development of HDA (SW) is to standardize Hydrological Design Practices in the form of design aids for uniform use, all over the country, using state of the Art technology to the extent possible.

• Aims at consolidating various design practices/tools for different design parameters

Components of HDA

As required in hydrological study of any project, the HDA includes following three modules:

HDA-Y: Assessment of Water Resource Potential-Availability/Yield Assessment

HDA-F: Estimation of Design Flood HDA- S: Sedimentation rate estimation

Apart from various analytical tools, the project also includes preparation of reference manuals and design aids to produce the hydrology chapter of the DPR as per standard guidelines of MoWR

HDA Framework

Models

database

Design Aids/ Guidelines

Assess Hydrological Design parameters and produce DPR Hydrology Chapter

HDA Software–ArchitectureData Layer

Manages the physical storage and retrieval of data Relational tables Stored Procedures Triggers Indexes for faster data access DB configuration for faster data processing Storage of spatial and textual data Data Export DB backup & restore

Data type in HDA

Regular Series data Irregular series data Paired data Physical parameters Spatial data

Windows Forms (Code Behind)

Windows Forms (UI)

HDA Software–Architecture Business Layer

Maintains business rules and logic Business process logic Contains Global functionsProvides process and user input validations Maintains in-between processed data as temporary data file Error / Warning handling

Example Base flow separation - Constant Baseflow Method - Straight Line Method - Recession Baseflow MethodEffective Rainfall Hyteograph (ERH) Watershed Delineation using MapWindow

Windows Forms (Code Behind)

Windows Forms (UI)

HDA Software–Architecture Presentation Layer

Houses the user interface and related presentation codeOperation friendly user interfaces Validation of user inputs Ease of navigation Interactive graphs with data Standard buttons Standard messages Supporting operations help Standard icons for individual processes

Example User navigation buttons with icons Data in grid Interactive Unit Hydrograph Data modification facility Delineated Watershed in embedded MapWindow Reports

Windows Forms (Code Behind)

Windows Forms (UI)

• Lets proceed with the HDA software

HDA Software

HDA Software – Project Details

All the key information of the project should be entered in the dialog.

Some of the key input fields are:• River/Tributary name• State/District• Type and purpose of the project• Geographical information• Catchment area (entered manually or

by automatic delineation)

HDA – Watershed Delineation

HDA Software – Stations

All the key information of the station should be entered in the dialog.

Some of the key input fields are:• Station name• Catchment area• Geographical information• Parameter type• Units• Time frequency• Data type

HDA Software – Stations Data Entry

HDA Software – HDA-F( Design Flood)

All Commonly used functionalities have been provided:

• Hydro meteorological Approach• Statistical Approach• Peak Flood Estimation

HDA Software – UH Gauged Catchment – ER Hyetograph

Effective Rainfall Hyetograph methods:

• Constant loss method• W index/Phi index method

HDA Software – UH Gauged Catchment – Unit Hydrograph

Effective Unit Hydrograph methods:• Nash method• Collin’s method• Clark’s method• Calibration process• S-curve transformation• Averaging of unit hydrograph• Project site UH

HDA Software – UH Ungauged Catchment – FER Method

Flood Estimation Report (FER) method:

• SUG parameters and UG Ordinates

• Smoothening of UG ordinates and graph

HDA Software – UH Ungauged Catchment – GIUH Method

Geomorphological Instantaneous Unit Hydrograph (GIUH) method:

• Click on menu item• Select outlet point from dropdown and

click “Calculate Morphological Parameters”

• Go to “GIUH” tab• Define/calculate velocity• Click “Generate GIUH”

HDA – Storm Analysis

Steps to perform:• Click on Storm Analysis from

HDA menu.• Add relevant shape files to the

opened ArcGIS environment.• Click on “Storm Analysis”.• Click on “Generate Isohyets”• Click on “Clipped Isohyets”• Click on “DAD Preparation”• Go to “Envelope Curve” tab.• Go to “PMP” tab.• Click on “Apply Correction

Factor”.• Storm is not Transposed• Storm is Transposed• Go to “Rainfall Distribution

Estimation” tab.

HDA Software – Peak Flood Estimation

Peak Flood Estimation methods:• Empirical formulae

• Dickens• Ryves• Inglis• Nawab Jung Bahadur• W. P. Creagers• Jarvi’s• Myer’s• Dredge and Burge’s• Pettis• Etc.

• Rational method• Calculate Tc• Rainfall Intensity – FER• Rainfall Intensity – Rambabu and

other• Rainfall Intensity – Raudkivi

equation• Rainfall intensity– User-defined• Rainfall intensity – Generate IDF• Calculate Peak Discharge

Data CorrectionData Validation

Zonal MapSedimentation Rate using Observed DataRegional ModelSWAT

Trap EfficiencySediment Quantum Calculation

Empirical Area Reduction MethodHEC-RAS

HDA-S Design AidHDA-S User Manual

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WRAP-HYDWRAP-HYD

Flow Flow Naturalization Naturalization Flow Flow Naturalization Naturalization FNMFNM

Basin Basin SimulationSimulation

Basin Basin SimulationSimulationWRAP-SIM

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Snowmelt SimulationSnowmelt Simulation

Time Series Time Series Simulation Simulation Time Series Time Series Simulation Simulation

MWSWAT Model E REGM PROM

Rainfall – Runoff Rainfall – Runoff SimulationSimulationRainfall – Runoff Rainfall – Runoff SimulationSimulation

Software Configuration : HDA-1

MWSWAT

WINSRM

ProcessedProcessed Data Data ProcessedProcessed Data Data

TSM

Interface

With

eSWIS

ArcGIS

HYMOS

RIBASIM

MIKE11

MIKEBASIN

Interface

With

eSWIS

ArcGIS

HYMOS

RIBASIM

MIKE11

MIKEBASIN

HDA-Y ( Water Availability )

Primary validation Screening and Graphical inspection

Fill-in missing data and Data Correction

Homogeneity Test

Stage -Discharge Relation

Data Compilation and Report Generation

Evapo-transpiration Estimation

Statistical Analysis

Data Validation

Secondary validation

The Regional Models four river systems for water availability are also being developed as part of TOR

North- Satluj River basinNorth East- Lohit and Barak basinsSouth- Godavari River BasinWest- West Coast ( Damanaganga and and Kannadipuzha) and Tapi River basinObjectiveDevelop relationships to enable computation of monthly yield series for Monsoon season for an ungauged sub-basin using data on climatic parameters, catchment Characteristic, Land use etc.

Status – Work of Tapi basin and Damanganga has been completed and work of Godavari basin is in progress

Regional study : HDA-Y

Empirical Relations

• Developed empirical equations for the formed clusters were both, month-wise and monsoon season relate the dependent variable discharge (Qsim) with the independent variables namely

Precipitation (PCPM), Temperature(TEMPM), Relief (RL), “% Crop Area (%CA), “% Forest

Area (%FA) and Unit Area of the sub basin (UA).Qsim= 0.739×(PCPM) + 19.686×(TEMPM) +

0.041×(UA) - 0.089×(RL) + 1.28×(%CA) -1085.98

Correlation coefficient (R) : 0.94

Concluding

This project will help in consolidating various design practices/tools for different design parameters

Will infuse standardization in the process of hydrological design parameters estimation and preparation of Hydrology chapter of DPR

Will help in reducing time period for assessment of parameters and their appraisal

Creating data basesTraining to State Engineers