Forestry Remote Sensing & GIS Course India 2025 | Space Borne
🌲 Space Borne — Forestry Remote Sensing & GIS

See the Forest.
Map Every Tree.

India’s most comprehensive Forestry Remote Sensing & GIS course — master forest cover mapping, deforestation detection, carbon stock estimation, LiDAR analysis, Google Earth Engine, Python, and GeoAI for forest monitoring. Available live online across all of India.

Canopy Height
0m Bare 5m Shrub 15m Mid 30m Tall 50m+ Emergent
Forest Canopy →
Forestry Remote Sensing Forest Cover Mapping Deforestation Detection Carbon Stock Estimation LiDAR Analysis Forest Fire Mapping GEE for Forests REDD+

India’s forests — spanning over 80 million hectares of tropical, subtropical, montane, and mangrove ecosystems — are under mounting pressure from deforestation, degradation, fire, and climate change. Satellite Remote Sensing and GIS have become the indispensable toolkit for monitoring, protecting, and restoring this natural heritage. Space Borne’s Forestry Remote Sensing course trains you to map forests from space: detecting change, estimating carbon, monitoring fire, assessing biodiversity habitat, and generating the spatial intelligence that drives policy, conservation, and climate action.

Why Forestry Remote Sensing Matters — and Why Now

India’s State of Forest Report (SFR) estimates that forests cover approximately 21.7% of the country’s geographic area — and tracking changes in this cover, whether gains through afforestation or losses through encroachment and fire, has always been a national priority. What has changed dramatically is how this monitoring is done. Satellite sensors now deliver sub-10-metre resolution imagery with 5-day repeat cycles, cloud-piercing SAR imagery at all times of year, and LiDAR point clouds that can model the three-dimensional structure of entire forest canopies.

Internationally, India’s REDD+ commitments, the Green India Mission, National Afforestation Programme, and carbon credit markets under voluntary standards like Verra and Gold Standard all require rigorous, satellite-based forest monitoring evidence. The demand for trained Forestry Remote Sensing professionals in India has never been higher — yet trained specialists remain critically scarce.

🌳 Forest Monitoring Is Now a Policy and Commercial Imperative

From India’s Nationally Determined Contributions (NDCs) under the Paris Agreement — which commit to creating an additional carbon sink of 2.5–3 billion tonnes through forests — to PMGSY road corridor impact assessments, tiger reserve monitoring, and commercial plantation forestry, satellite-based forest intelligence is demanded at every level. The Forest Survey of India (FSI), ISFR reporting cycle, state forest departments, WII, WWF-India, TNC, and a growing ecosystem of carbon project developers are all actively building this capacity.

What Can You Do With Forestry Remote Sensing?

The applications span forest inventory, conservation biology, climate policy, disaster response, and commercial forestry. Our course covers all of these domains with hands-on exercises using real Indian forest landscapes:

🗺️

Forest Cover & Type Mapping

Map dense, open, scrub, and plantation forests; classify forest types — tropical dry, moist deciduous, evergreen, mangrove, and montane.

⚠️

Deforestation & Degradation Detection

Detect illegal felling, encroachment, and forest fragmentation using SAR coherence change, NDVI breakpoints, and GLAD alerts.

🌡️

Carbon Stock Estimation

Estimate above-ground biomass (AGB) and forest carbon stocks using LiDAR-derived canopy height, L-band SAR, and allometric equations.

🔥

Forest Fire Monitoring & Burn Scar Mapping

Detect active fire hotspots with MODIS FIRMS, map burn extents using NBR change, and assess post-fire regeneration over time.

🦅

Biodiversity & Habitat Mapping

Model wildlife habitat suitability, map forest fragmentation and connectivity corridors, and support tiger, elephant, and leopard conservation planning.

🌊

Mangrove & Wetland Forest Monitoring

Map and monitor mangrove extent, density, and health along India’s coastline using Sentinel-1 SAR, Sentinel-2, and tidal composites.

Who Should Take This Course?

This course is designed for professionals and students working in forestry, ecology, conservation, climate policy, or geospatial science who want to harness satellite remote sensing for forest monitoring. No prior remote sensing experience is required for foundational tracks.

🎓 Forestry Students BSc/MSc/PhD students in Forestry, Ecology, Wildlife Science, Environmental Science, and Natural Resource Management
🏛️ Forest Department Officers IFS officers, state forest department staff, FSI analysts, and DFO-level field managers needing satellite monitoring tools
🐯 Wildlife & Conservation Professionals WII researchers, NGO field biologists, tiger/elephant reserve managers, and IUCN project staff working on habitat analysis
🌡️ Carbon & Climate Analysts REDD+ project developers, carbon credit verifiers, CDM/VCS project consultants, and climate policy researchers
🌿 Environmental Consultants EIA practitioners, biodiversity offset analysts, afforestation programme managers, and green infrastructure planners
📊 GIS & RS Analysts Existing GIS professionals from any domain who want to specialise in the rapidly growing forest and carbon monitoring sector

Key Forest & Vegetation Indices Covered

Forest remote sensing uses a rich palette of spectral indices — each designed to reveal a different aspect of forest health, structure, moisture, or disturbance. Our course trains you to select and apply the right index for each forest monitoring task:

Index Formula Forest Application
NDVI (NIR−R)/(NIR+R) General canopy greenness, biomass proxy, seasonal phenology tracking, afforestation monitoring
EVI 2.5×(NIR−R)/(NIR+6R−7.5B+1) Dense tropical forest monitoring where NDVI saturates; better canopy health indicator in closed-canopy forests
NBR (NIR−SWIR2)/(NIR+SWIR2) Normalised Burn Ratio — the primary index for fire severity assessment and burn scar mapping
dNBR NBR_pre − NBR_post Differenced NBR — quantifies fire severity classes (unburned to high severity) and post-fire recovery trajectory
NDMI (NIR−SWIR1)/(NIR+SWIR1) Forest moisture stress detection, drought impact on canopy, fire risk assessment based on fuel moisture
SWIR Change SWIR2 temporal difference Detecting forest disturbance, selective logging, and gradual canopy loss through shortwave infrared change analysis
SAR Backscatter σ° VV / VH / HH All-weather forest mapping; L-band (PALSAR) penetrates canopy for biomass estimation; C-band for deforestation alerts
BSI (SWIR1+R)−(NIR+B)/(SWIR1+R+NIR+B) Bare soil index — detecting soil exposure after clear-felling, landslide-driven forest loss, and encroachment
CHM (LiDAR) DSM − DTM Canopy Height Model — tree height mapping for timber volume, AGB estimation, and biodiversity structure modelling
NDWI (Mangrove) (G−NIR)/(G+NIR) Mangrove extent mapping, tidal inundation detection, and coastal forest hydrological analysis

Course Modules — Full Curriculum

Our Forestry Remote Sensing course is structured as six intensive modules, progressing from satellite data fundamentals to advanced GeoAI applications for forest carbon and biodiversity monitoring — all using real Indian forest satellite data.

01

Foundations of Forestry Remote Sensing

Beginner · 2 weeks
  • Forest reflectance and spectral signatures — species and season variation
  • Multispectral, hyperspectral, SAR, and LiDAR sensors for forest monitoring
  • Landsat 8/9, Sentinel-1/2, MODIS FIRMS, PALSAR-2 for Indian forests
  • Forest type classification — India’s Champion & Seth classification system
  • GEE and QGIS environment setup for forest analysis workflows
  • Overview: FSI, ISFR, India State of Forest Report cycle and methodology
02

Forest Cover Mapping & Change Detection

Beginner–Intermediate · 3 weeks
  • Supervised & unsupervised forest cover classification in GEE and QGIS
  • Dense, open, scrub, and plantation forest class discrimination
  • Post-classification change detection across multi-year Landsat archive
  • GLAD global forest change alerts integration for real-time deforestation monitoring
  • Accuracy assessment and error matrix for forest cover maps
  • Case study: Western Ghats forest cover loss detection 2000–2024
03

Carbon Stock Estimation & REDD+

Intermediate · 3 weeks
  • Above-ground biomass (AGB) estimation from optical and SAR data
  • L-band PALSAR backscatter for forest biomass modelling
  • LiDAR canopy height model (CHM) for tree height and AGB estimation
  • Allometric equations for Indian tropical and subtropical forest types
  • REDD+ MRV framework — Measurement, Reporting, and Verification methodology
  • Case study: Carbon stock mapping for a VCS-registered project, Central India
04

Forest Fire & Disturbance Monitoring

Intermediate · 2 weeks
  • Active fire detection using MODIS FIRMS, VIIRS, and Sentinel-3 SLSTR
  • NBR and dNBR burn severity mapping with Sentinel-2 time-series
  • Fire recurrence and forest fire risk zone mapping
  • Post-fire canopy damage assessment and regeneration monitoring
  • Illegal logging and forest disturbance detection using SAR coherence
  • Case study: Simlipal and Bandipur forest fire damage assessment, Odisha
05

Python & LiDAR for Forest Analysis

Intermediate–Advanced · 3 weeks
  • Python + Rasterio + GDAL for forest raster processing pipelines
  • LiDAR point cloud processing with LAStools and laspy in Python
  • Canopy Height Model (CHM) generation from airborne LiDAR
  • Individual tree segmentation and crown delineation algorithms
  • GEE Python API + geemap for large-scale forest cover analysis
  • Automated NDVI anomaly alerts and deforestation reporting pipeline
06

GeoAI for Forest Monitoring

Advanced · 3 weeks
  • Deep learning (CNN) for forest type classification on Sentinel-2
  • U-Net semantic segmentation for deforestation and degradation mapping
  • Change detection with Siamese networks on multi-temporal imagery
  • Random Forest and XGBoost for AGB estimation from multi-source data
  • Object detection for selective logging roads and encroachment structures
  • Capstone: End-to-end GeoAI forest monitoring dashboard on real Indian data

Tools & Platforms You Will Master

Satellite Datasets Used in the Course

🔥 Forest Fire Remote Sensing — A Critical India-Specific Skill

India loses hundreds of thousands of hectares of forest to fire every year, with Odisha, Chhattisgarh, Jharkhand, Uttarakhand, and the Northeast particularly affected. The course dedicates an entire module to forest fire monitoring — from real-time active fire detection using MODIS FIRMS and VIIRS to post-fire severity mapping using dNBR on Sentinel-2 imagery — using actual Indian forest fire events as case studies, including the Simlipal and Bandipur fires.

Why Space Borne for Forestry Remote Sensing?

Forestry Remote Sensing is a highly specialised domain combining forest ecology knowledge, satellite data science, LiDAR technology, carbon accounting methodology, and GIS. Space Borne’s curriculum is built from the ground up around India’s forest landscapes, India’s forest policy frameworks, and the specific datasets and monitoring workflows actually used by India’s forest agencies, conservation organisations, and carbon project developers.

🌲 India-Specific Forest Context — Built Into Every Module

Every case study uses real Indian forest satellite data: Western Ghats biodiversity hotspot mapping, Simlipal biosphere reserve fire monitoring, Sundarbans mangrove change detection, Central Indian tiger corridor analysis, Northeast India shifting cultivation change detection, and Himalayan subalpine forest phenology tracking. You do not learn generic forest remote sensing theory — you learn to solve India’s actual forest monitoring challenges with India’s forests as your classroom.

Career Opportunities After This Course

India’s forestry, conservation, climate, and land management sectors are rapidly building capacity for satellite-based forest monitoring. The demand for trained professionals significantly exceeds supply across all of these career pathways:

🏛️
Forest Survey of India & State Forest Depts FSI, ISFR mapping teams, state remote sensing application centres, and IFS officer corps using GIS for forest management planning
🌡️
Carbon & REDD+ Projects Verra, Gold Standard, Plan Vivo project developers; carbon credit verifiers; MRV consultants; voluntary carbon market analysts
🐯
Wildlife & Conservation Organisations WWF India, WCS, WII, NCF, CES IISc, IUCN, TRAFFIC — habitat mapping, corridor analysis, and protected area monitoring
🔬
Research Institutions ICAR-CAFRI, FRI Dehradun, ICFRE, IISc, TERI, ATREE, NRSC — forest ecology, carbon cycle, and climate change research
🌍
International Organisations FAO, UNDP, UNEP, CIFOR, World Bank FCPF — global forest monitoring, JFM programmes, and climate finance mechanisms
🏗️
Environmental Consultancies & EIA Firms Forest diversion impact assessment, biodiversity offsets, afforestation monitoring, green corridor analysis for infrastructure projects

I was a forest ranger in Chhattisgarh with no GIS experience beyond basic map reading. Space Borne’s Forestry Remote Sensing course transformed how I see my work. I can now detect illegal felling in real time using SAR coherence change, generate seasonal fire risk maps for my entire range, and produce forest health reports from satellite data in hours. In the third module I completed a full carbon stock estimation for a proposed JFM area — work that previously required months of field surveys. The course is deeply rooted in India’s forests, which made every exercise feel immediately relevant and applicable.

Surekha Nayak — Forest Range Officer, Chhattisgarh Forest Department (Space Borne Alumnus)

Frequently Asked Questions

No. Module 01 starts from the very beginning — assuming no prior GIS or remote sensing experience, only a background in forestry, ecology, or environmental science. Students who already have GIS experience can join from Module 02. By Module 04 every student is producing professional forest fire and deforestation maps from real satellite data.
LiDAR (Light Detection and Ranging) uses laser pulses to create detailed three-dimensional models of forest canopy structure — measuring individual tree heights, canopy density, and ground elevation beneath the canopy. You do not need to own or operate a LiDAR scanner. The course uses freely available LiDAR point cloud datasets and NASA’s spaceborne GEDI LiDAR data, processed entirely using free software (LAStools, Python with laspy) on a standard laptop. The airborne LiDAR datasets used in the course are sourced from open government and research data repositories.
Yes — Module 03 is dedicated entirely to forest carbon stock estimation and REDD+ MRV methodology. You will learn how to estimate above-ground biomass (AGB) from SAR, optical, and LiDAR data using India-appropriate allometric equations; how to set up a forest reference emission level (FREL) using the Landsat archive; and how to structure a satellite-based MRV system that meets Verra VM0015 and VM0007 methodology requirements. This module directly prepares you for roles with carbon project developers, MRV consultants, and REDD+ programme implementers.
Yes — forest department professionals are among our most valued students and the course curriculum is partly designed around the monitoring challenges faced by India’s forest officers. The case studies use data from Indian tiger reserves, biosphere reserves, and protected area networks. IFS officers and forest rangers find that the skills from Modules 02 and 04 (forest cover change detection and fire monitoring) are immediately deployable in their field responsibilities. We offer institutional enrolment for forest departments wishing to train multiple staff — contact +91-8895209346 for group rates.
The course uses real satellite data from India’s major forest zones and biomes: Western Ghats moist deciduous and evergreen forests (Karnataka, Kerala, Maharashtra); Central Indian tiger landscapes (Pench, Kanha, Simlipal in Odisha); Northeastern India’s subtropical and montane forests (Assam, Meghalaya, Arunachal); Himalayan subalpine and alpine forests (Uttarakhand, Himachal Pradesh); Sundarbans mangroves (West Bengal); dry deciduous forests of Andhra Pradesh and Telangana; and plantation forestry landscapes in Tamil Nadu and Chhattisgarh.
The full Forestry Remote Sensing course (all six modules) runs over approximately 3–4 months as live online sessions, with weekend and weekday batch options. Individual modules can be taken as standalone 2–3 week short courses. All sessions are recorded for revision. A module completion certificate and comprehensive programme certificate are awarded. For current batch schedules and fee structures, contact +91-8895209346 or info@spaceborne.in.

Enroll in India’s Most Comprehensive Forestry Remote Sensing Course

Whether you are a forest officer wanting satellite tools for your range, a researcher estimating carbon stocks, a conservation biologist mapping tiger habitat, or a GIS analyst building a career in forest monitoring — this course is built for you.

Space Borne’s Forestry Remote Sensing programme is delivered live online, available to students anywhere in India, and grounded entirely in India’s forest ecosystems, policy frameworks, and monitoring challenges. The forest canopy is visible from space. Learn to read it.

📞 Contact Space Borne — Enroll Today

Call / WhatsApp: +91-8895209346  |  Email: info@spaceborne.in  |  Website: www.spaceborne.in
Ask about individual module enrolment, full programme discounts, group / institutional rates for forest departments and NGOs, and current batch schedules. Seats are limited each batch.

The Forest Canopy
Is Visible From Space.

Join forest officers, ecologists, carbon analysts, and researchers across India who are mastering satellite-based forest monitoring with Space Borne. Enroll in the Forestry Remote Sensing & GIS course today.

Visit www.spaceborne.in 💬 WhatsApp Now
📞 +91-8895209346 ✉️ info@spaceborne.in 🌐 www.spaceborne.in

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