Water Resources Engineer · GIS Analyst

Decoding landscapes, predicting flows.

I'm Fardin — a Civil and Water Resources Engineering graduate from MIST enthusiastic about GIS mapping, remote sensing, and hydraulic modelling. This is a record of the maps and studies I've built, from a field-measured hydraulics thesis to district-scale environmental mapping.

Portrait of Md. Zahid Adnan Fardin
Profile

About

I graduated in Civil and Water Resources Engineering from the Military Institute of Science and Technology (MIST). My undergraduate thesis, co-authored with Shahriar Ahmed, examined flow velocity behaviour around a permeable groin-like structure.

Throughout my academic life, I've been building out GIS and remote-sensing skills alongside that hydraulic modelling background. I'm currently searching for similar work opportunities and fully funded graduate scholarships in Civil and water resources engineering, in Bangladesh and abroad.

DegreeB.Sc. in Civil and Water Resources Engineering
InstitutionMIST
FocusGIS · Hydraulics · Hydrology · Modelling
SeekingWork Opportunities & Graduate Scholarships
Based inDhaka, Bangladesh
Selected work

Projects

Undergraduate thesis · Hydraulics · MIST, June 2026

Flow Velocity Analysis Around a V-Shaped Permeable Groin-Like Structure

B.Sc. engineering thesis, co-authored with Shahriar Ahmed, supervised by Dr. Md. Kabirul Islam, EWCE Department, MIST. Compared the 3D flow velocity field — longitudinal (X), transverse (Y), and vertical (Z) — around a V-shaped bandal-like groin in both Perforated (permeable) and Drum (solid) configurations, at three alignment angles (30°, 45°, 60°), across high and low tide, near the Lebukhali reach of the Payra River.

Study area map of the Payra River near Lebukhali, Bangladesh, showing the location within Patuakhali District
Study area — Payra River, Lebukhali
Diagram showing the principle of a permeable groin-like structure, with longitudinal, lateral, and vertical velocity components and sediment deposition zones under high tide and ebb tide
Working principle — velocity components & deposition

East/North/Up velocity data (from ADCP measurements, processed in WinRiver2) were transformed into local X/Y/Z components, then decomposed by the energy sharing concept to find each component's share of kinetic energy at every measurement point — across two structure types, three angles, two tide phases, two depth bands, and two positions along the structure.

ADCPWinRiver23D Velocity DecompositionEnergy Sharing ConceptRiver Hydraulics
Internship · Streams Tech Ltd.

Surface Drainage Hydraulics Model Simulation Using GeoSWMM — Dhaka City

I built and simulated a surface drainage hydraulic model for a selected urban catchment in Dhaka using GeoSWMM (built on the EPA SWMM 5 engine) integrated with ArcMap 10.8. Delineated the watershed from a DEM sourced via USGS Earth Explorer, configured the drainage network (subcatchments, conduits, junctions, and outfalls), and ran a Kinematic Wave hydraulic simulation using Horton infiltration and a 10-year return period rainfall series.

GeoSWMM watershed delineation output for the Dhaka City study area, showing stream features, outlet points, and watershed polygons
Watershed delineation — streams, outlets & subcatchments
Water elevation profile from Node J3 to O1 showing the hydraulic grade line staying below node crown levels
Water elevation profile — J3 to O1

I verified model performance through the status report — a strong mass-balance continuity of -0.082% on runoff, with all conduits stable and no flooding or surcharging. I analyzed peak conduit velocities and flows, node depths, and subcatchment runoff to flag the most hydraulically loaded points in the network. I also diagnosed and corrected a flow-routing continuity error by refining conduit geometry, rebalancing subcatchment parameters, and adjusting the simulation time step.

Bar chart of maximum velocity per conduit
Max velocity by conduit
Bar chart of maximum flow per conduit
Max flow by conduit
Bar chart of maximum water depth per node
Max depth by node
Subcatchment runoff hydrograph curves
Subcatchment runoff hydrographs
System infiltration rate over time following Horton's model
System infiltration (Horton)
Comparison of subcatchment precipitation and node total inflow over time
Precipitation vs. node inflow
GeoSWMMArcMap 10.8Kinematic Wave RoutingHorton InfiltrationDEM & Watershed Delineation
Spatial analysis · GIS case competition

Buriganga River Pollution & Waste Disposal Site Suitability

I mapped the spatial distribution of eight water quality parameters along the Buriganga River in Dhaka, identified the river's most environmentally vulnerable zones, and ran a multi-criteria suitability analysis to locate optimal waste disposal sites — weighing river proximity, industrial zones, road access, land use, and population density.

Map of most vulnerable locations along the Buriganga River, classified low, moderate, and high vulnerability
Vulnerability classification
Map of suitable waste disposal sites in the study area based on multi-criteria suitability analysis
Suitable disposal sites — final output
Map of Biochemical Oxygen Demand (BOD) in the Buriganga River
BOD
Map of Chemical Oxygen Demand (COD) in the Buriganga River
COD
Map of Dissolved Oxygen (DO) in the Buriganga River
DO
Map of pH in the Buriganga River
pH
Map of Total Dissolved Solids (TDS) in the Buriganga River
TDS
Map of Total Solids (TS) in the Buriganga River
TS
Map of Suspended Solids (SS) in the Buriganga River
SS
Map of turbidity in the Buriganga River
Turbidity
Land use land cover map of the Buriganga River study area
LULC — study area
ArcMap 10.8IDW InterpolationMulti-Criteria EvaluationSpatial AnalystTechnical Reporting
Remote sensing · Time series, 2015 – 2025

Land Use Land Cover Change — Netrokona District

Land Use Land Cover maps of Netrokona district for 2015, 2020, and 2025, showing water body, vegetation, agriculture, barren land, and built-up area classes

I classified and compared land cover across Netrokona district in 2015, 2020, and 2025.

ArcGISLULC ClassificationChange DetectionTime Series
Remote sensing · District scale

Biophysical Indices Mapping — Netrokona District

Biophysical indices map of Netrokona district, showing ARVI, MNDWI, SAVI, NDVI, EVI, NDWI, and NDBI index maps alongside a study area locator map

I derived a set of biophysical index maps for Netrokona district from satellite imagery — vegetation indices (ARVI, SAVI, NDVI, EVI), water indices (MNDWI, NDWI), and a built-up index (NDBI) using Google Earth Engine and ArcGIS.

ArcGISARVI / SAVI / NDVI / EVIMNDWI / NDWINDBISatellite Imagery
Remote sensing · Change comparison

NDVI & NDBI Comparison — Manchester

NDVI and NDBI comparison maps of Manchester for 2020 and 2024, showing vegetation and built-up index change over time

I compared NDVI and NDBI for Manchester between 2020 and 2024 to track change in vegetation and built-up extent over the four-year period.

QGISNDVINDBIChange Detection
Remote sensing · Change comparison

NDVI & NDBI Comparison — Warsaw

NDVI and NDBI comparison maps of Warsaw for 2020 and 2024, showing vegetation and built-up index change over time

I compared NDVI and NDBI for Warsaw between 2020 and 2024 to track change in vegetation and built-up extent over the four-year period.

QGISNDVINDBIChange Detection
Remote sensing · Country scale

NDWI Map of France

NDWI (Normalized Difference Water Index) map of France, classified from very low to very high water index

A Normalized Difference Water Index map of France, classifying surface water content across the country from very low to very high.

QGISNDWISatellite Imagery

Further details and results about the projects I have worked on can be provided upon request.

Toolkit

Skills & tools

GIS & Remote Sensing

  • ArcGIS
  • Google Earth Engine

Hydraulic & Hydrologic Modelling

  • HEC-RAS
  • HEC-HMS
  • EPA-SWMM
  • GeoSWMM
  • Delft 3D
  • EPANET

Field Data Collection & Reporting

  • ADCP & WinRiver 2
  • Python
  • Technical Reporting
Get in touch

Open to work opportunities & graduate scholarships.

Reach out about Civil and Water Resources Engineering positions, or fully funded Graduate Programmes.