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Thermal Camera for Agriculture | WIRIS Agro UAV Camera

Precision farming requires precise data, and that’s exactly what the Workswell WIRIS Agro delivers. Designed specifically for agricultural UAV applications, this...

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Thermal Camera for Agriculture | WIRIS Agro UAV Camera

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Thermal imaging for irrigation management
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Thermal colourmap water

WIRIS Agro UAV Thermal Camera by Workswell

Precision farming requires precise data, and that’s exactly what the Workswell WIRIS Agro delivers. Designed specifically for agricultural UAV applications, this thermal imaging system combines high-resolution infrared and visible spectrum cameras with advanced radiometric analytics. Mounted on drones, it provides real-time insight into crop health, irrigation efficiency, and plant stress, revolutionising modern farm management.

From large-scale commercial farms to research fields, the WIRIS Agro helps agricultural professionals make informed decisions to improve yield, optimise resources, and respond to field variability.

United Spectrum Instruments is the official distributor of Workswell thermal imaging solutions in India, offering consultation, training, integration, and after-sales support for WIRIS Agro deployments.

Agriculture-Specific Design — What Distinguishes the WIRIS Agro from Other WIRIS Drone Cameras

The WIRIS Agro is the only member of the Workswell WIRIS drone camera range designed specifically for agricultural applications. Five features distinguish it from the WIRIS Pro, Pro SC, Enterprise, and Enterprise SC: its ~450 g weight is the lightest in the WIRIS range, directly extending agricultural drone flight time and area coverage per battery charge; its −25°C to +135°C temperature range is optimised for the ambient-to-plant-surface temperature window relevant to crop canopy monitoring, providing finer temperature resolution within this range than systems with wider upper limits; its Wi-Fi interface enables wireless field-edge data review and camera configuration without cabling the drone; its microSD storage enables affordable, field-swappable media management for high-volume agricultural survey operations; and its custom agriculture-specific colour maps — WaterStep for water stress visualisation and CropStep for crop health visualisation — make field-level thermal patterns immediately interpretable to farmers and agronomists without specialist thermal imaging expertise.

How Thermal Imaging Detects Crop Water Stress

The physics underlying the WIRIS Agro’s crop water stress detection is straightforward: well-irrigated plants maintain active transpiration through open stomata, which cools leaf surfaces through evaporative heat removal. When plants experience water deficit, they close stomata to conserve water, reducing transpirational cooling and causing canopy temperature to rise above that of well-watered plants in the same field. The WIRIS Agro’s ≤30 mK (0.03°C) thermal sensitivity reliably detects these temperature differences — typically 1–5°C between stressed and non-stressed plants — across the full field view from UAV altitude, identifying under-irrigated zones, blocked drip emitters, and irregular sprinkler coverage patterns that ground-level inspection would miss.

Feature Specification
Thermal Resolution 640 × 512 px / 336 × 256 px
Visual Resolution Full HD (1920 × 1080 px)
Temperature Range -25°C to +135°C
Thermal Sensitivity (NETD) ≤ 30 mK (0.03°C)
Spectral Range 7.5 – 13.5 µm
Weight ~450 g
Interfaces MavLink, S.Bus, CAN, Ethernet, Wi-Fi
Storage microSD (up to 256 GB)
Software Support ThermoLab, CorePlayer, SDKs

Agriculture-Focused Thermal Imaging with WaterStep and CropStep

Captures crop canopy temperature variations with agriculture-specific WaterStep and CropStep colour maps that make water stress and crop health patterns immediately interpretable to farmers and agronomists in the field. The −25°C to +135°C temperature range is optimised for the ambient-to-crop-surface window, providing finer temperature resolution within the crop monitoring range than systems with higher upper temperature limits.

Radiometric Data Accuracy with ≤30 mK Sensitivity

Provides per-pixel absolute temperature measurement with ≤30 mK sensitivity, reliably detecting the 1–5°C canopy temperature differences between water-stressed and well-irrigated crop areas that characterise early water deficit before visible wilting symptoms develop. The calibrated radiometric data supports quantitative canopy temperature analysis for research-grade agricultural experiment documentation as well as operational farm management.

Custom Vegetation Indices — NDVI and NDRE

Supports real-time NDVI and NDRE vegetation index computation, enabling combined thermal stress and vegetation health mapping from a single survey flight. NDVI provides broad green vegetation density and health assessment; NDRE provides greater sensitivity to early-stage chlorophyll variation and is more effective for detecting nutrient deficiency in dense canopy crops where NDVI saturates. Together they give agronomists and researchers a comprehensive picture of crop condition from one WIRIS Agro survey flight.

Lightest WIRIS Payload at ~450 g — Maximum Agricultural Flight Time

At approximately 450 g, the WIRIS Agro is the lightest payload in the Workswell WIRIS drone camera range — approximately 40–50% lighter than the WIRIS Pro, Pro SC, and Enterprise SC. This weight advantage directly extends agricultural drone flight time per battery charge, increasing area coverage per survey session and reducing the cost per hectare of thermal precision farming data. Agricultural drone service providers covering large farm areas benefit directly from the lower payload weight in operational efficiency and revenue per flight session.

Real-Time Aerial Insights via Wi-Fi and Live Streaming

Delivers live thermal and vegetation index data for immediate agricultural decision-making. Wi-Fi connectivity enables wireless field-edge camera configuration and preliminary data review on a tablet or laptop between flights without cabling the drone — well-matched to the agricultural field operation workflow where the UAV is launched and retrieved at the field boundary and the operator is the farmer or agronomist rather than a specialist drone technician.

Durable and Field-Ready for Agricultural Operations

Built to withstand outdoor farming conditions, dust, moisture, and continuous UAV operations across Indian agricultural environments including hot and humid summer conditions in tropical farming regions, dusty dry-season field surveys, and high-humidity monsoon-adjacent operations. The microSD storage system is field-swappable and affordable to manage across high-volume multi-farm survey operations.

Advantages at a Glance

  • Enables precision agriculture through combined thermal canopy temperature and vegetation index (NDVI/NDRE) analysis from a single flight
  • Detects crop water stress, nutrient deficiency, and disease at early stage before visible symptoms, enabling preventive intervention
  • Reduces water and fertiliser usage with targeted application strategies based on aerial thermal and vegetation index field maps
  • Increases crop yields by optimising resource allocation — identifying under-performing zones for targeted input rather than uniform application
  • Provides efficient, non-invasive monitoring over large fields in a fraction of the time required for ground-level crop scouting
  • Lightest ~450 g design ensures extended aerial coverage and lower survey cost per hectare on agricultural drones
  • Improves sustainability by supporting environmentally sensitive precision farming — less water, less fertiliser, fewer pesticides, less runoff
  • Trusted tool for modern agronomy, agricultural research, precision farming services, and large-scale farm management across India

Crop Health Monitoring

Identifies water stress, nutrient deficiencies, and plant disease before visible symptoms appear across the full field from UAV altitude:

  • Early water stress detection: aerial thermal mapping of canopy temperature elevation in early-stage water deficit, identifying under-irrigated zones, blocked drip emitters, and sprinkler malfunction patterns for targeted irrigation correction before yield loss occurs
  • Nutrient deficiency mapping: NDRE index mapping sensitive to early-stage chlorophyll reduction from nitrogen or other nutrient deficiency, enabling targeted variable-rate fertiliser application in deficient zones rather than uniform blanket application
  • Disease and pathogen detection: thermal and vegetation index anomaly mapping identifying disease outbreak zones from their thermal and chlorophyll expression for early containment and targeted fungicide/bactericide application

Irrigation Management

Detects over- or under-irrigated areas to optimise water distribution across large agricultural fields:

  • Centre pivot and lateral move uniformity assessment: aerial thermal mapping of crop canopy temperature across centre-pivot and lateral-move irrigated fields identifying non-uniformities in application from equipment malfunction, nozzle blockage, or pressure variation for targeted maintenance
  • Drip and micro-irrigation system monitoring: thermal identification of blocked drip emitters and non-functioning micro-sprinklers from the localised canopy temperature hotspots they produce, enabling rapid field crew repair dispatch to affected zones
  • Flood and furrow irrigation assessment: thermal mapping of irrigation water advance and recession across flood and furrow irrigated fields identifying under-irrigated tail-end areas and over-irrigated head-end zones for water management improvement

Precision Farming

Enables targeted fertiliser and pesticide application based on aerial thermal and vegetation index data, reducing input costs and environmental impact:

  • Variable rate application (VRA) zone mapping: generation of thermal and NDVI/NDRE-based management zone maps that define areas within a field requiring different fertiliser or pesticide rates, enabling VRA controllers to apply the right amount at the right location
  • Yield prediction and forecasting: canopy temperature and vegetation index data correlation with yield monitor data for developing field-specific yield prediction models that improve harvest planning and marketing decisions
  • Soil variability mapping: thermal expression of soil type and moisture content variation across fields for site-specific management zone development and precision farming practice adoption

Viticulture and Specialty Crops

Supports vineyard, orchard, and plantation monitoring for optimised harvesting and yield prediction:

  • Vineyard water stress and ripeness mapping: aerial thermal survey of wine grape vineyards in Nashik and Pune wine regions for canopy temperature-based water stress identification and pre-harvest ripeness uniformity assessment to optimise harvest timing
  • Orchard health monitoring: thermal and NDVI monitoring of mango, citrus, pomegranate, and other orchard crops in Maharashtra, Andhra Pradesh, and Rajasthan for disease identification, water stress zoning, and tree canopy condition assessment
  • Banana, sugarcane, and plantation crop monitoring: aerial thermal and vegetation index survey of large-scale plantation crops for irrigation efficiency assessment and disease outbreak early detection

Greenhouse Farming

Provides thermal data for controlled agricultural environments to improve temperature uniformity and productivity:

  • Greenhouse temperature uniformity mapping: aerial or low-altitude thermal survey of greenhouse roof and interior temperature distribution identifying hot spots, cold spots, and heating/cooling system non-uniformities that affect crop uniformity
  • Controlled environment agriculture (CEA) monitoring: thermal monitoring of hydroponic and aeroponic growing systems for temperature distribution optimisation and early detection of equipment malfunction affecting root zone temperature
  • Shade net and plastic mulch assessment: thermal evaluation of shade net and plastic mulch effectiveness in modifying soil and canopy microclimate for vegetable and flower production optimisation

Forestry and Plantation Management

Monitors tree health, density, and growth patterns across large plantation and natural forest areas:

  • Forest fire risk and hotspot monitoring: aerial thermal survey of forest areas identifying dry fuel accumulation, smouldering debris, and early fire hotspots for forest department pre-monsoon fire risk management and post-fire recovery monitoring
  • Plantation health and pest monitoring: thermal and vegetation index survey of large forestry plantations (eucalyptus, teak, bamboo) for growth uniformity assessment, drought stress identification, and pest or disease outbreak detection
  • Urban tree canopy health: thermal and NDVI mapping of urban tree canopy for municipal green infrastructure health assessment and heat island mitigation planning

Agricultural Research

Assists universities, ICAR institutions, and laboratories in developing advanced agronomic models and sustainable farming practices:

  • Crop physiology field experiments: calibrated canopy temperature measurement across experimental plots for crop water relations research, drought tolerance evaluation, and irrigation scheduling experiment documentation at ICAR research stations and state agricultural universities
  • Precision agriculture technology development: thermal and vegetation index data collection for developing and validating machine learning models, crop simulation models, and decision support tools for precision farming applications in Indian crop systems
  • Agricultural drone technology research: WIRIS Agro data used as the ground truth thermal data source for benchmarking lower-cost thermal sensors, developing automated image analysis algorithms, and validating crop stress detection methodologies

United Spectrum Instruments is the authorised distributor of the Workswell WIRIS Agro UAV Camera in India, offering tailored solutions for precision agriculture, irrigation management, and agricultural research across India’s farming and agri-tech ecosystem.

Genuine WIRIS Agro Systems with Full Manufacturer Warranty

Genuine Workswell WIRIS Agro cameras with full manufacturer warranty, ensuring Indian farmers, agri-tech companies, FPOs, and research institutions receive authentic, calibrated agricultural thermal drone payloads validated for precision farming and crop research applications.

Expert Consultation for Precision Farming, Irrigation, and Crop Research

Expert consultation for precision farming application design, including survey protocol development for each crop type, flight altitude and overlap optimisation for the required thermal map GSD, WaterStep/CropStep colour map configuration for field-specific interpretation, NDVI/NDRE data workflow design, and UAV platform integration for the customer’s specific agricultural drone.

Pan-India Installation, UAV Integration, and After-Sales Support

Pan-India drone integration support including MAVLink/S.Bus/CAN/Wi-Fi interface commissioning, ThermoLab and CorePlayer training for agricultural users and research teams, survey protocol development for each crop and field geometry, and after-sales technical service from the official Workswell distributor in India.

FAQs

Yes. The WIRIS Agro visualises crop canopy surface temperature variations that indicate water stress, irrigation efficiency, dry zones, and water retention issues. When plants experience water stress, they close their stomata to reduce water loss, which reduces evapotranspirational cooling and causes canopy temperature to rise relative to well-watered neighbours — a temperature difference typically in the 1–5°C range that is well within the WIRIS Agro’s ≤30 mK (0.03°C) thermal sensitivity. The agriculture-specific colour maps (WaterStep, CropStep) provided with the WIRIS Agro are designed to visually highlight these subtle inter-plant temperature differences across the full field view in a way that is immediately interpretable by farmers and agronomists, even without specialist thermal imaging training.

Yes. The WIRIS Agro supports integration with DJI agricultural and inspection drones and other popular UAVs via MAVLink, S.Bus, CAN, Ethernet, and Wi-Fi interfaces. MAVLink enables autopilot integration for camera control and GPS geotagging of each image frame. S.Bus provides RC channel gimbal control. Wi-Fi enables wireless camera configuration and data access from a ground tablet or laptop without requiring a cable connection to the drone — particularly useful for agricultural operations where the UAV is launched and retrieved at the field edge and data review is performed on a field tablet. United Spectrum Instruments advises on the specific integration configuration for each UAV platform during system design.

The WIRIS Agro supports real-time vegetation index computation including NDVI (Normalised Difference Vegetation Index) and NDRE (Normalised Difference Red Edge index), helping detect chlorophyll content, photosynthetic activity, and biomass variability across fields. NDVI and NDRE are calculated from the visible (RGB) and near-infrared channel data that the WIRIS Agro captures alongside the thermal infrared data, providing a combined multispectral and thermal analysis of crop health from a single drone flight. ThermoLab and CorePlayer process this combined data to produce vegetation index maps and thermal maps from the same survey flight, enabling correlation of thermal stress indicators with vegetation index-based crop health metrics for more comprehensive precision farming insights.

Yes. With full radiometric thermal data, RAW format access, SDKs, and ThermoLab analysis software, the WIRIS Agro is well suited to agricultural experiments, crop stress field trials, irrigation efficiency studies, and precision farming research at Indian agricultural universities (ICAR institutions, state agricultural universities, IIT and NIT agronomy and remote sensing departments). The calibrated ≤30 mK thermal sensitivity and per-pixel radiometric data enable the quantitative temperature measurements required for publication-quality experimental results and comparative crop physiology studies.

The WIRIS Agro includes ThermoLab and CorePlayer software. ThermoLab provides advanced radiometric analysis tools specifically suited to agricultural data workflows: vegetation index map generation, thermal orthomosaic processing from GPS-tagged survey flights, crop stress zone identification and mapping, and detailed field reports with calibrated temperature statistics and vegetation index values. CorePlayer provides real-time thermal and RGB monitoring during flight, live vegetation index display, image capture control, and basic data review. SDKs are also available for developers and precision agriculture platform integrators who need to incorporate WIRIS Agro data into custom farm management systems, variable rate application controllers, or agronomic decision support platforms.

The WIRIS Agro is the only member of the Workswell WIRIS drone camera range designed specifically for agricultural applications. Four features distinguish it from the WIRIS Pro, Pro SC, Enterprise, and Enterprise SC: its ~450 g weight — the lightest in the WIRIS range by a significant margin — maximises flight time on agricultural drones where payload weight directly limits area coverage per battery charge over large fields; its −25°C to +135°C temperature range is optimised for the ambient-to-plant-surface temperature window relevant to crop monitoring, rather than the higher industrial temperature ranges of other WIRIS models; its Wi-Fi interface enables wireless data transfer and camera configuration at the field edge without cabling; its microSD storage (up to 256 GB) enables affordable media management in high-volume agricultural survey operations; and its custom agriculture-specific colour maps (WaterStep, CropStep) are designed to make crop stress and water distribution patterns immediately interpretable in the field without specialist thermal imaging expertise.

At ~450 g, the WIRIS Agro is approximately 40% lighter than the WIRIS Pro (~780 g), 45% lighter than the WIRIS Pro SC (~800 g), and more than 50% lighter than the WIRIS Enterprise SC (~950 g). This weight advantage directly translates to longer flight time per battery charge on any UAV platform — because lower payload mass reduces the total thrust required from the motors, which reduces battery current draw and extends endurance. For agricultural survey operations where large field areas must be covered efficiently, longer flight time per battery means fewer battery swaps per survey session, more area covered per operator-hour, and lower survey cost per hectare. Agricultural UAV operators in India — drone service providers conducting precision farming surveys for farmers — directly benefit from the WIRIS Agro’s low weight in both operational efficiency and the ability to use it on lighter, lower-cost agricultural drone platforms without exceeding their payload capacity.

The WIRIS Agro’s −25°C to +135°C range is substantially narrower than the −25°C to +1,500°C range of the WIRIS Enterprise and Enterprise SC, and also narrower than the WIRIS Pro’s selectable −25°C to +550°C upper range. A narrower temperature range concentrates the camera’s full radiometric measurement capacity within a smaller temperature span, providing finer temperature resolution — more precisely discriminating between temperatures that are close together. For agricultural crop monitoring, where the relevant temperature differences between stressed and healthy plant canopies are in the 1–5°C range within an overall ambient-temperature field of 20–40°C, the fine temperature resolution of the narrow −25°C to +135°C range is more useful than the broad range needed for industrial or scientific high-temperature targets. The upper limit of 135°C accommodates monitoring of greenhouse heating systems, composting processes, and soil thermal profiles without requiring unnecessary upper range extension that would reduce temperature resolution in the crop-relevant ambient range.

Yes. Vineyards, orchards, and plantations are among the most commercially valuable precision agriculture WIRIS Agro applications in India, including wine grape vineyards in Nashik and Pune, mango orchards in Maharashtra and Andhra Pradesh, citrus plantations in Vidarbha and Rajasthan, and banana plantations in Tamil Nadu and Karnataka. The WIRIS Agro’s thermal imaging identifies individual tree or vine canopy temperature variations that indicate water stress, rootstock disease, nutrient deficiency, or post-frost freeze damage — enabling targeted irrigation, selective chemical application, and early disease containment rather than the blanket treatments that increase input cost and reduce sustainability. The lightweight design enables operation on smaller, more manoeuvrable drones suited to flying within the canopy rows and column structure of orchards and vineyards where larger drones may not fit safely.

The WIRIS Agro’s Wi-Fi interface enables wireless configuration and data access from a ground-side tablet or laptop at the field edge, without requiring the operator to physically connect a cable to the drone for camera settings changes or preliminary data review between flights. In agricultural field operations where the drone is launched and retrieved at the field edge and multiple survey flights are conducted in sequence across different sections of a large farm, the Wi-Fi connection allows the operator to review the previous flight’s thermal data on a tablet, adjust camera settings for the next flight (sensitivity, colour map, vegetation index), and transfer selected images for immediate crop stress assessment — all without touching the drone. This wireless workflow is better matched to the agricultural operating environment where drones are deployed from farm vehicles or the field edge, the operator may be the farmer or agronomist rather than a specialist drone technician, and efficient multi-flight operations with minimal setup time between flights are the priority.

Several Indian government initiatives support precision agriculture technology adoption relevant to WIRIS Agro procurement. The Digital Agriculture Mission (DAM) launched by the Ministry of Agriculture and Farmers’ Welfare promotes digital technology adoption in farming including drone-based crop monitoring. The PM-KISAN and SMAM (Sub-Mission on Agricultural Mechanisation) schemes provide capital subsidy support for farm mechanisation equipment procurement by farmer producer organisations (FPOs) and individual farmers. ICAR research grants fund precision agriculture technology trials and field validation studies at agricultural research stations. The Drone Didi initiative promotes women self-help group adoption of agricultural drones for precision farming services. State government agri-technology promotion schemes in Andhra Pradesh, Karnataka, Maharashtra, and other states provide additional support for drone-based precision farming adoption. United Spectrum Instruments advises farming organisations, FPOs, agri-tech companies, and ICAR institutions on procurement pathways under applicable government schemes.

Contact United Spectrum Instruments to begin the process: reach our team at sales@unitedspectrum.in or info@unitedspectrum.in, or call +91 93631 83748 / +91 97899 04948. Share your agricultural application — crop types, farm or survey area size, UAV platform, precision farming objectives (irrigation management, disease detection, yield prediction), research or commercial use case, and any government scheme procurement requirements — and our team will specify the appropriate resolution configuration, advise on UAV integration and survey protocol design for your crops and field geometry, and prepare a formal techno-commercial proposal with GST-compliant documentation. UAV integration support, ThermoLab and CorePlayer setup for agricultural workflows, operator training on agricultural survey technique, and after-sales service are provided pan-India from our Chennai headquarters at 5/45 Karunaa Conclave, Anna Nagar, Chennai – 600040.

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FAQs

Yes. The WIRIS Agro visualises crop canopy surface temperature variations that indicate water stress, irrigation efficiency, dry zones, and water retention issues. When plants experience water stress, they close their stomata to reduce water loss, which reduces evapotranspirational cooling and causes canopy temperature to rise relative to well-watered neighbours — a temperature difference typically in the 1–5°C range that is well within the WIRIS Agro’s ≤30 mK (0.03°C) thermal sensitivity. The agriculture-specific colour maps (WaterStep, CropStep) provided with the WIRIS Agro are designed to visually highlight these subtle inter-plant temperature differences across the full field view in a way that is immediately interpretable by farmers and agronomists, even without specialist thermal imaging training.

Yes. The WIRIS Agro supports integration with DJI agricultural and inspection drones and other popular UAVs via MAVLink, S.Bus, CAN, Ethernet, and Wi-Fi interfaces. MAVLink enables autopilot integration for camera control and GPS geotagging of each image frame. S.Bus provides RC channel gimbal control. Wi-Fi enables wireless camera configuration and data access from a ground tablet or laptop without requiring a cable connection to the drone — particularly useful for agricultural operations where the UAV is launched and retrieved at the field edge and data review is performed on a field tablet. United Spectrum Instruments advises on the specific integration configuration for each UAV platform during system design.

The WIRIS Agro supports real-time vegetation index computation including NDVI (Normalised Difference Vegetation Index) and NDRE (Normalised Difference Red Edge index), helping detect chlorophyll content, photosynthetic activity, and biomass variability across fields. NDVI and NDRE are calculated from the visible (RGB) and near-infrared channel data that the WIRIS Agro captures alongside the thermal infrared data, providing a combined multispectral and thermal analysis of crop health from a single drone flight. ThermoLab and CorePlayer process this combined data to produce vegetation index maps and thermal maps from the same survey flight, enabling correlation of thermal stress indicators with vegetation index-based crop health metrics for more comprehensive precision farming insights.

Yes. With full radiometric thermal data, RAW format access, SDKs, and ThermoLab analysis software, the WIRIS Agro is well suited to agricultural experiments, crop stress field trials, irrigation efficiency studies, and precision farming research at Indian agricultural universities (ICAR institutions, state agricultural universities, IIT and NIT agronomy and remote sensing departments). The calibrated ≤30 mK thermal sensitivity and per-pixel radiometric data enable the quantitative temperature measurements required for publication-quality experimental results and comparative crop physiology studies.

The WIRIS Agro includes ThermoLab and CorePlayer software. ThermoLab provides advanced radiometric analysis tools specifically suited to agricultural data workflows: vegetation index map generation, thermal orthomosaic processing from GPS-tagged survey flights, crop stress zone identification and mapping, and detailed field reports with calibrated temperature statistics and vegetation index values. CorePlayer provides real-time thermal and RGB monitoring during flight, live vegetation index display, image capture control, and basic data review. SDKs are also available for developers and precision agriculture platform integrators who need to incorporate WIRIS Agro data into custom farm management systems, variable rate application controllers, or agronomic decision support platforms.

The WIRIS Agro is the only member of the Workswell WIRIS drone camera range designed specifically for agricultural applications. Four features distinguish it from the WIRIS Pro, Pro SC, Enterprise, and Enterprise SC: its ~450 g weight — the lightest in the WIRIS range by a significant margin — maximises flight time on agricultural drones where payload weight directly limits area coverage per battery charge over large fields; its −25°C to +135°C temperature range is optimised for the ambient-to-plant-surface temperature window relevant to crop monitoring, rather than the higher industrial temperature ranges of other WIRIS models; its Wi-Fi interface enables wireless data transfer and camera configuration at the field edge without cabling; its microSD storage (up to 256 GB) enables affordable media management in high-volume agricultural survey operations; and its custom agriculture-specific colour maps (WaterStep, CropStep) are designed to make crop stress and water distribution patterns immediately interpretable in the field without specialist thermal imaging expertise.

At ~450 g, the WIRIS Agro is approximately 40% lighter than the WIRIS Pro (~780 g), 45% lighter than the WIRIS Pro SC (~800 g), and more than 50% lighter than the WIRIS Enterprise SC (~950 g). This weight advantage directly translates to longer flight time per battery charge on any UAV platform — because lower payload mass reduces the total thrust required from the motors, which reduces battery current draw and extends endurance. For agricultural survey operations where large field areas must be covered efficiently, longer flight time per battery means fewer battery swaps per survey session, more area covered per operator-hour, and lower survey cost per hectare. Agricultural UAV operators in India — drone service providers conducting precision farming surveys for farmers — directly benefit from the WIRIS Agro’s low weight in both operational efficiency and the ability to use it on lighter, lower-cost agricultural drone platforms without exceeding their payload capacity.

The WIRIS Agro’s −25°C to +135°C range is substantially narrower than the −25°C to +1,500°C range of the WIRIS Enterprise and Enterprise SC, and also narrower than the WIRIS Pro’s selectable −25°C to +550°C upper range. A narrower temperature range concentrates the camera’s full radiometric measurement capacity within a smaller temperature span, providing finer temperature resolution — more precisely discriminating between temperatures that are close together. For agricultural crop monitoring, where the relevant temperature differences between stressed and healthy plant canopies are in the 1–5°C range within an overall ambient-temperature field of 20–40°C, the fine temperature resolution of the narrow −25°C to +135°C range is more useful than the broad range needed for industrial or scientific high-temperature targets. The upper limit of 135°C accommodates monitoring of greenhouse heating systems, composting processes, and soil thermal profiles without requiring unnecessary upper range extension that would reduce temperature resolution in the crop-relevant ambient range.

Yes. Vineyards, orchards, and plantations are among the most commercially valuable precision agriculture WIRIS Agro applications in India, including wine grape vineyards in Nashik and Pune, mango orchards in Maharashtra and Andhra Pradesh, citrus plantations in Vidarbha and Rajasthan, and banana plantations in Tamil Nadu and Karnataka. The WIRIS Agro’s thermal imaging identifies individual tree or vine canopy temperature variations that indicate water stress, rootstock disease, nutrient deficiency, or post-frost freeze damage — enabling targeted irrigation, selective chemical application, and early disease containment rather than the blanket treatments that increase input cost and reduce sustainability. The lightweight design enables operation on smaller, more manoeuvrable drones suited to flying within the canopy rows and column structure of orchards and vineyards where larger drones may not fit safely.

The WIRIS Agro’s Wi-Fi interface enables wireless configuration and data access from a ground-side tablet or laptop at the field edge, without requiring the operator to physically connect a cable to the drone for camera settings changes or preliminary data review between flights. In agricultural field operations where the drone is launched and retrieved at the field edge and multiple survey flights are conducted in sequence across different sections of a large farm, the Wi-Fi connection allows the operator to review the previous flight’s thermal data on a tablet, adjust camera settings for the next flight (sensitivity, colour map, vegetation index), and transfer selected images for immediate crop stress assessment — all without touching the drone. This wireless workflow is better matched to the agricultural operating environment where drones are deployed from farm vehicles or the field edge, the operator may be the farmer or agronomist rather than a specialist drone technician, and efficient multi-flight operations with minimal setup time between flights are the priority.

Several Indian government initiatives support precision agriculture technology adoption relevant to WIRIS Agro procurement. The Digital Agriculture Mission (DAM) launched by the Ministry of Agriculture and Farmers’ Welfare promotes digital technology adoption in farming including drone-based crop monitoring. The PM-KISAN and SMAM (Sub-Mission on Agricultural Mechanisation) schemes provide capital subsidy support for farm mechanisation equipment procurement by farmer producer organisations (FPOs) and individual farmers. ICAR research grants fund precision agriculture technology trials and field validation studies at agricultural research stations. The Drone Didi initiative promotes women self-help group adoption of agricultural drones for precision farming services. State government agri-technology promotion schemes in Andhra Pradesh, Karnataka, Maharashtra, and other states provide additional support for drone-based precision farming adoption. United Spectrum Instruments advises farming organisations, FPOs, agri-tech companies, and ICAR institutions on procurement pathways under applicable government schemes.

Contact United Spectrum Instruments to begin the process: reach our team at sales@unitedspectrum.in or info@unitedspectrum.in, or call +91 93631 83748 / +91 97899 04948. Share your agricultural application — crop types, farm or survey area size, UAV platform, precision farming objectives (irrigation management, disease detection, yield prediction), research or commercial use case, and any government scheme procurement requirements — and our team will specify the appropriate resolution configuration, advise on UAV integration and survey protocol design for your crops and field geometry, and prepare a formal techno-commercial proposal with GST-compliant documentation. UAV integration support, ThermoLab and CorePlayer setup for agricultural workflows, operator training on agricultural survey technique, and after-sales service are provided pan-India from our Chennai headquarters at 5/45 Karunaa Conclave, Anna Nagar, Chennai – 600040.

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