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Case Studies, RTWQMS—Real Time Water Quality Monitoring System

Aaxis Nano Advances Real-Time Water Quality Monitoring Across Kerala

Real time water quality monitoring Aaxis Nano Advances Real-Time Water Quality Monitoring Across Kerala 29 September 2026  | Kerala, India 15-Minute Data Acquisition | Multi-Station Monitoring | Real-Time Data Transmission The Project For the Kerala State Pollution Control Board (KSPCB), Aaxis Nano Technologies implemented a Real-Time Water Quality Monitoring System (RTWQMS) in Kerala, with project execution completed in 2026. The system enables continuous water-quality surveillance, real-time data transmission and centralised environmental data management. Comprehensive Water Quality Monitoring The RTWQMS measures a comprehensive range of water-quality parameters, including pH, turbidity, conductivity, temperature, dissolved oxygen, ammonia, BOD, COD, TSS, nitrate, H₂S, pressure, depthand colour. Designed for data acquisition at 15-minute intervals, the system provides continuous visibility into changing water-quality conditions. The monitoring architecture supports both single and multi-parameter, field-replaceable sensors, along with compressed-air self-cleaning and multipoint calibration, enabling reliable operation across fresh, polluted and seawater applications. From Field Stations to Centralised Data The system supports water-monitoring stations with GSM/GPRS connectivity, with provision for 4G LTE/5Gand other communication modes. Data is transmitted to a central receiving station for analysis, validation and archiving, with the architecture designed to accommodate data from multiple remote stations. GPS, remote system access, local data retrieval and multi-server transmission further strengthen connectivity between field monitoring stations and the central monitoring infrastructure. Designed for Reliable Long-Term Monitoring Designed for prolonged unattended operation, the system incorporates non-volatile data storage, online diagnostics, system alarms, operational logging and real-time calibration and validation records. It also provides data validation capabilities, allowing both raw and validated data to be transmitted to thecentral server. With full-spectrum scanning and multi-point spectrophotometry capabilities, the system bringstogether sensing, validation, connectivity and data management within a single monitoring framework. Together, these capabilities establish a connected framework for continuous water-quality measurement, reliable field operation and centralised environmental data management. Aaxis Nano Technologies Pvt. Ltd. Water Quality Monitoring | Data Acquisition | Instrumentation | Real-Time Monitoring | Environmental Monitoring | Automation

Blogs, EQMS – Effluent Quality Monitoring System

Continuous Effluent Quality Monitoring System (CEQMS): Sensors, Data Acquisition & Real-Time Effluent Monitoring

A Continuous Effluent Quality Monitoring System (CEQMS) is now a standard requirement for many industrial and municipal wastewater dischargers in India. Since the Central Pollution Control Board (CPCB) issued directions in 2014 covering 17 categories of highly polluting industries, along with common effluent treatment plants (CETPs) and sewage treatment plants (STPs), online effluent monitoring has moved from a best practice to a compliance expectation. But a CEQMS is only as credible as the chain that carries a measurement from the discharge point to the regulator’s server. This guide walks through that chain, link by link, so that plant owners and consultants know what a dependable system actually involves. Why a CEQMS Is a Data Chain, Not a Sensor It is tempting to treat a CEQMS as a set of instruments. In practice, a sensor reading becomes compliance data only after it has been taken from a representative point, converted into a validated value, stored, transmitted securely, and checked against laboratory results. A weakness at any link, whether a poorly chosen sampling point, an unmanaged calibration schedule, or an unreliable data connection, reduces the value of everything upstream of it. Link 1: A Representative Sampling Point Lorem ipsum dolor sit amet, consectetur adipisci. Effluent is typically monitored at the final discharge point after treatment, with sample conditioning and flow-through assemblies arranged so the sensors see the same water that leaves the plant. Sensors placed at non-representative locations produce clean-looking data that does not describe the actual discharge. Flow measurement at the same point is equally important, because it turns a concentration into the total pollutant load discharged. Link 2: Measurement Technology Matched to the Parameter CEQMS parameters generally include pH, BOD, COD, TSS, ammoniacal nitrogen and flow, with additional parameters depending on the industry. Each has its own measurement principle and its own failure modes: Parameter Typical online approach What to design for pH Electrode-based sensor in a flow-through or immersion assembly Regular cleaning and calibration; CPCB guidelines expect online pH to agree with the laboratory value within ±0.2 pH COD / BOD UV-Vis spectrophotometric probes, or TOC-based analysers, with a site-specific correlation to laboratory COD/BOD Correlation must be established for the effluent matrix and revisited whenever the matrix changes; target agreement with the lab is ±10% TSS / turbidity Optical turbidity sensors or spectral probes, correlated to laboratory TSS Fouling control (automatic cleaning) and a representative flow past the sensor Ammoniacal nitrogen Ion-selective or analyser-based measurement Matrix interferences and temperature; selected to suit the effluent type Flow Electromagnetic or ultrasonic flow measurement at the discharge Needed to convert concentration into pollutant load discharged UV disinfection (STPs) UV intensity and performance verification at the discharge stage Confirms pathogen reduction is being delivered, not just assumed Where the OEM portfolio fits.  No single manufacturer covers every parameter and every effluent type, which is why the technology choice belongs in the system design rather than in a catalogue. Reagent-free spectrophotometric probes from s::can, such as the i::scan, measure organic load, TSS, turbidity and nitrate directly in the water, with optional automatic cleaning for fouling-prone sites. ATI contributes online turbidity monitoring, including NephNet, alongside its wider range of water quality analysers. For STPs, Trojan UV verifies disinfection performance at the discharge stage. The right combination depends on the effluent, the parameters mandated for the facility, and the regulator’s requirements. Link 3: Data Acquisition and Logging Raw sensor signals mean little to a regulator until they are captured, time-stamped, and corrected for calibration. A data acquisition system (DAS) consolidates readings from every instrument, applies calibration factors, records instrument status and diagnostic alarms, and stores readings locally so that a network outage does not create a gap in the record. Daily checks of data transmission and diagnostic alarms are a routine part of operating the system, not an afterthought. Link 4: Secure, Two-Way Connectivity to CPCB and SPCB Servers Validated data must reach the Central and State Pollution Control Board servers in the prescribed format, typically over GPRS/4G, VPN or a cloud gateway, at intervals set by the applicable protocol, commonly around every 15 minutes. Communication is two-way, so the board’s server can also request and confirm data. Time-stamped digital records, protected in transit, are what give the regulator confidence that the numbers on its dashboard match what the plant measured. Link 5: Ground-Truthing Against the Laboratory Online values are not left to stand on their own. CPCB’s revised guidelines call for laboratory results to be compared with the average of the online readings from the same period, with defined allowed variability: within ±10% for COD, BOD and TSS, and within ±0.2 for pH. The same guidelines note that, for regulatory action, manual sampling and laboratory analysis remain the reference method. This is why a CEQMS is best understood as a continuous, validated view of discharge performance, backed by a documented QA/QC and calibration routine, rather than a substitute for laboratory verification. Aaxis Nano: One Accountable System Integrator for the Whole Chain Because the value of a CEQMS depends on every link, Aaxis Nano works as a system engineering and integration partner rather than a supplier of individual instruments. Instead of leaving the plant to coordinate separate vendors for sensors, loggers, connectivity and calibration, Aaxis takes responsibility for the system as a whole: Site survey and sampling design – choosing a representative sampling point and designing the flow-through and sample conditioning arrangement. Sensor and analyser integration – selecting the right technology for each parameter from partner OEMs including ATI, s::can and Trojan, and integrating it into one system. Data acquisition and CPCB/SPCB connectivity – configuring the DAS, local storage and secure two-way transmission to the regulatory servers. Power and panel engineering – designing the power supply, backup and enclosure to keep the system running through outages and site conditions. Commissioning and calibration – installation, testing, initial calibration and laboratory correlation before the system goes live. Training, remote support and lifecycle service – operator training, remote diagnostics, and scheduled calibration, validation and maintenance across India. Talk

Blogs, CAAQMS

GPS-Enabled Compliance: How Mobile Monitoring Vans Are Changing Pollution Board Oversight

Fixed ambient air quality stations have long been the backbone of pollution monitoring in India, but by design each one tells you what’s happening at a single location. A city, industrial corridor, or mining belt can have noticeably different air quality readings just a few kilometres apart. This is the gap that the mobile air quality monitoring van and wider mobile environmental monitoring systems are designed to close – working alongside fixed networks to change how pollution control boards conduct oversight across the country. Why Fixed and Mobile Monitoring Work Best Together Continuous Ambient Air Quality Monitoring Stations (CAAQMS) are essential. They deliver continuous, long-term, reference-quality data from a defined location and remain the foundation of any air quality network. By design, though, a fixed station represents its own location, and deploying stations at scale takes significant investment. When a pollution board needs to investigate a complaint from a residential colony near an industrial cluster, verify dust levels along a construction corridor, or respond to a sudden odour complaint near a wastewater treatment plant, it often needs additional, targeted data from the affected area. Boards have historically filled this gap with manual spot-checks using handheld equipment – a slow, resource-heavy process that produces isolated readings rather than a continuous, mappable dataset. What a GPS-Enabled Mobile Monitoring Van Adds A mobile monitoring van integrates ambient air quality sensors, meteorological instrumentation, and GPS-based location tracking into a single moving platform. As the van travels through a city, industrial estate, or construction corridor, it continuously logs pollutant concentrations – PM2.5, PM10, NOx, SO2, VOCs, and other parameters – tagged with precise GPS coordinates and timestamps. The result is a live, geo-referenced pollution map rather than a single static reading. This approach delivers several practical advantages for pollution control board compliance work: Hotspot identification – vans can quickly reveal pollution concentration gradients across a route, pinpointing localised sources that sit between fixed station locations Rapid complaint response – a van can be dispatched to a specific location within hours, gathering verifiable, time-stamped data on-site Fenceline and boundary verification – for industrial clusters, mining operations, and construction sites, a mobile unit can trace the plant boundary and help indicate whether ambient levels are approaching or exceeding permitted limits Flexible coverage – a single well-instrumented van can service multiple locations across a district, extending the reach of an existing fixed CAAQMS network without duplicating it How GPS Data Strengthens Regulatory Oversight The GPS element is what turns mobile monitoring from a diagnostic tool into a strong compliance-support instrument. Every reading is anchored to an exact location and time, creating a traceable data trail that pollution boards can use when investigating complaints, that industries can use to review their own performance, and that communities can use to better understand local air quality. Its regulatory standing, however, depends on how the data is generated: documented QA/QC procedures, regular instrument calibration, and adherence to the applicable regulatory protocols and the relevant board’s data validation requirements. Combined with cloud dashboards, GPS-tagged air quality data can be visualised as a live heat map, giving regulators a city-wide or corridor-wide view that adds spatial context to fixed-station data. Fleet-level GPS tracking also brings operational discipline to mobile monitoring programmes – routes can be planned, logged, and audited, ensuring that monitoring coverage is systematic rather than ad hoc, and that the van’s own movements are as transparent as the data it collects. What Goes Into a Reliable Mobile Monitoring Van Building a monitoring van that produces dependable, regulator-ready data is a system engineering exercise, not a matter of bolting sensors to a vehicle roof. It needs: Robust ambient air quality sensors capable of accurate readings while in motion, not just at a stationary point Weatherproof, vibration-resistant instrumentation suited to real-world road conditions Reliable GPS and telemetry integration so location and pollutant data are synchronised without gaps A stable power architecture – typically vehicle power with battery backup – to keep instruments running throughout a full monitoring shift Cloud-based data platforms for real-time visualisation and long-term data storage for audit purposes Documented QA/QC and calibration procedures – scheduled calibration checks and data validation aligned with the applicable regulatory protocols, so readings can be trusted and defended. Aaxis Nano’s Role: System Engineering and Integration Partner A monitoring van is only as reliable as the system around its sensors. Aaxis Nano works as a system engineering and integration partner, not just a technology supplier, taking responsibility for how every element of the platform works together – from design review through years of field operation. Using proven ambient air quality monitoring technology from technology partner Kunak Air, Aaxis Nano delivers: Sensor integration – selecting, mounting, and configuring ambient air quality and meteorological sensors so they perform accurately in motion and match the monitoring objective GPS and telemetry – integrating location tracking and communications so every reading is geo-tagged, time-stamped, and transmitted without gaps Power architecture – designing vehicle power with battery backup and protection suited to a full monitoring shift Data systems – connecting the van to cloud dashboards and long-term storage, with data handling built to support QA/QC and audit needs Commissioning – on-site installation, calibration, testing, and acceptance so the van is ready for operation from day one Lifecycle support – servicing, calibration support, and upgrades across India for the life of the system Because Aaxis Nano also engineers and supports fixed CAAQMS installations, mobile units can be planned as part of one coordinated monitoring programme with the fixed network, rather than as a separate purchase. Talk to our experts to evaluate your mobile air quality monitoring requirements and design a GPS-enabled mobile environmental monitoring system – with the correct sensor, telemetry, and power architecture – built for validated, field-proven performance. From system engineering and station design to sensor integration, commissioning, and lifecycle support, Aaxis Nano partners with you end-to-end across India. The Future of Mobile Compliance Monitoring As Indian cities and industrial corridors face increasing scrutiny over air quality, mobile monitoring vans and

Blogs, STP/ETP – Sewage Treatment Plant / Effluent Treatment Plant

From Manual Sampling to Real-Time Visibility: Modernising STP Effluent Monitoring Across India

For decades, STP effluent monitoring in India has relied on a familiar routine: a technician collects a grab sample, walks it to the lab, waits for results, and reports compliance figures that are already hours – sometimes days – out of date. This manual sampling model was never designed for the scale, speed, or scrutiny that today’s wastewater infrastructure demands. As pollution control boards tighten reporting norms and urban populations put growing pressure on treatment capacity, sewage treatment plant operators across the country are shifting from occasional snapshots to continuous, real-time visibility.This shift isn’t just a technology upgrade – it’s a fundamental change in how STPs are managed, audited, and trusted. Why Manual Sampling Falls Short Grab sampling captures a single moment in time. It cannot detect a spike in ammonia at 2am, a sudden drop in dissolved oxygen during a power fluctuation, or a septicity event building up overnight in the sewer network. By the time a lab technician flags an anomaly, the non-compliant effluent may already have been discharged. For plant operators managing multiple STPs across a city or state, this lag translates directly into regulatory risk, community health concerns, and reactive – rather than preventive – maintenance. Manual sampling also strains resources. Each sample requires transport, cold-chain handling, lab analysis, and manual data entry – a process that is slow, labour-intensive, and prone to human error. Multiply this across dozens of treatment plants and the operational burden becomes unsustainable What Real-Time STP Effluent Monitoring Looks Like Modern continuous effluent monitoring replaces the sampling cycle with always-on instrumentation installed directly at critical points in the treatment process – inlet works, aeration tanks, secondary clarifiers, and the final discharge point. Parameters such as pH, BOD, COD, TSS, ammonia, dissolved oxygen, and turbidity are measured continuously and transmitted via telemetry to a central dashboard, giving plant managers and pollution control boards live, defensible data. A few technologies are driving this transformation: Reagent-free spectrophotometric probes from s::can, such as the i::scan, installed in a flow-through assembly at the inlet or final discharge to measure organic load (COD/BOD), TSS, turbidity and nitrate directly in the water – no sample handling or chemical reagents, and multiple parameters from a single point Sludge blanket monitoring at secondary clarifiers, so operators can optimise settling and prevent solids carryover before it becomes a compliance issue Septicity detection in sewer networks, catching odour and corrosion risks upstream before they reach the treatment plant Online turbidity monitoring at the post-filtration stage, giving an immediate signal of filter performance and final water quality UV disinfection monitoring at the effluent discharge point, ensuring pathogen reduction is verified in real time rather than assumed Together, these instruments turn an STP from a facility that is periodically checked into one that is continuously observed. The Compliance and Operational Case for Real-Time Data For pollution control boards, real-time effluent quality sensors mean audits shift from paperwork review to live dashboard verification, backed by continuous, time-stamped digital data that can be traced back to the exact minute of measurement. For plant operators, the same data becomes an early-warning system: a rising ammonia trend can trigger corrective action hours before it would ever show up in a lab report. This also has a direct financial impact. Continuous monitoring reduces the risk of penalties for non-compliant discharge, cuts the labour cost of manual sampling rounds, and extends equipment life by catching process upsets – like clarifier overload or filter fouling – before they cause downstream damage. Building a Modern STP Effluent Monitoring System Implementing a real-time monitoring network isn’t a single sensor purchase – it’s a system design exercise. It requires: Correct sensor selection for the specific parameter and process location (inlet, aeration, clarifier, or final discharge) Reliable telemetry so data reaches the dashboard without gaps, even at remote or semi-urban STPs Power architecture suited to the site, including backup for continuous uptime Integration with SCADA or a central monitoring platform, so pollution board reporting and internal operations both draw from the same validated data source Getting this architecture right is what separates a sensor installation that works on day one from a monitoring network that stays accurate and field-proven for years. Talk to our experts to evaluate your STP effluent monitoring requirements and design a real-time monitoring network – with the correct sensor, telemetry, and power architecture – built for validated, field-proven performance. Using proven continuous effluent and turbidity monitoring technology from technology partners ATI and s::can, alongside UV disinfection verification from Trojan, Aaxis Nano provides system engineering, station design, sensor integration, commissioning, and lifecycle support across India. The Road Ahead As India’s Central and State Pollution Control Boards move towards mandatory real-time reporting for larger STPs, the transition from manual sampling to continuous visibility is no longer optional – it’s the direction the entire sector is heading. Plants that modernise early gain not just compliance confidence, but genuine operational insight into how their treatment process performs day to day, season to season, and under stress. FAQ’s What parameters should be monitored continuously at an STP?  At minimum, plants should continuously monitor pH, dissolved oxygen, turbidity, ammonia, BOD/COD, and TSS at key process points – inlet, aeration tank, clarifier, and final discharge – to capture both process performance and compliance status in real time. How does real-time effluent monitoring support pollution control board compliance? Continuous monitoring provides pollution control boards with live, time-stamped digital data rather than periodic lab reports, making audits faster and discharge violations far easier to detect and act on immediately rather than after the fact. Is real-time STP monitoring only for large treatment plants?  No. While large municipal STPs were early adopters, smaller and mid-sized plants are increasingly deploying scaled-down continuous monitoring systems, as the cost of sensors and telemetry has fallen while regulatory pressure has increased across all plant sizes.

News

Aaxis Nano Technologies Awarded Ambient Air Quality Monitoring Project for Dalmia Bharat

CONTINUOUS Ambient Air Quality MONITORING Aaxis Nano Technologies Awarded Ambient Air Quality Monitoring Project for Dalmia Bharat 24 September 2026  | Maharashtra, India 4 AAQMS Systems | Ambient Air Quality Monitoring | 3-Year CAMCLocation: Ahilyanagar, Maharashtra The four AAQMS systems will strengthen continuous ambient air quality surveillance, supported by engineered design, data connectivity and long-term maintenance. Dalmia Bharat Green Vision Limited’s facility in Ahilyanagar, Maharashtra is set to strengthen its ambient air quality monitoring infrastructure through the implementation of Ambient Air Quality Management Systems (AAQMS) by Aaxis Nano Technologies. The project covers the design, engineering, supply, installation and commissioning of the monitoring systems, supporting more effective and continuous environmental surveillance at the facility. The proposed solution combines ambient air quality monitoring, associated data management and connectivity, and data uploading to SPCB and CPCB servers. Supported by commissioning, performance testing and three years of Comprehensive Annual Maintenance after the warranty period, the project is designed to provide sustained monitoring, system upkeep and reliable environmental data management. Aaxis Nano Technologies Pvt. Ltd. Ambient Air Quality Monitoring | Water Quality Monitoring | Noise Monitoring | Meteorological Monitoring | Data Management & Connectivity | Environmental Monitoring | Operation & Maintenance

Case Studies, OCU - Odour Control Unit

Addressing Odour at Source: Aaxis Nano’s Odour Control Solution at Preet Vihar SPS

ODOUR CONTROL UNIT Addressing Odour at Source: Aaxis Nano’s Odour Control Solution at Preet Vihar SPS 22 September 2026  | Delhi, India Delhi Jal Board  |  Preet Vihar, Delhi  |  53.3 MGD SPS  |  Odour Control System  |  H₂S Monitoring  |  5-Year O&M The Project Aaxis Nano Technologies completed the supply, installation, testing and commissioning of an Odour Control System at the Preet Vihar Sewage Pumping Station (SPS) for the Delhi Jal Board. With a capacity of 53.3 MGD, the SPS receives sewage from surrounding areas before pumping it towards the Kondli Sewage Treatment Plant. The project combines dedicated odour-treatment infrastructure with H₂S monitoring and a five-year Comprehensive Annual Maintenance Contract. Treating Odour at Source The installation incorporates FRP vessels containing activated-carbon media, integrated with exhaust fans, inlet and outlet ducting, air-distribution arrangements and exhaust stacks. Supporting control, electrical, instrumentation, piping and service-water systems enable coordinated operation of the treatment process, allowing odorous air to be extracted, treated through the activated-carbon media and discharged through the designated exhaust arrangement. Continuous H₂S Monitoring An online analyser with RTU and data-communication arrangements provides continuous H₂S measurement, while a portable analyser supports field-level assessment. Together, these systems provide visibility into hydrogen sulphide conditions at the facility. Sustaining Performance Beyond Commissioning The system is supported by a five-year Comprehensive Annual Maintenance Contract, extending Aaxis Nano’s technical support beyond installation and commissioning. This supports continued operation of the odour-control and H₂S monitoring infrastructure. The Outcome The completed installation provides Delhi Jal Board with dedicated odour-treatment infrastructure at the 53.3 MGD Preet Vihar SPS, supported by continuous H₂S measurement, field-level assessment and long-term technical support. Aaxis Nano Technologies Pvt. Ltd. Odour Control | H₂S Monitoring | Sewage Pumping Stations | Environmental Monitoring | Air Quality | Operation & Maintenance

News

Aaxis Nano to Advance Continuous Emissions Monitoring for Vedanta Iron & Steel Limited in Goa

CONTINUOUS EMISSION MONITORING Aaxis Nano to Advance Continuous Emissions Monitoring for Vedanta Iron & Steel Limited in Goa 22 September 2026  | Goa, India 2 Monitoring Locations | Online Emissions Monitoring | Dust Monitoring Aaxis Nano Technologies has been entrusted with the supply, installation and commissioning of a continuous emissions monitoring solution for Vedanta Iron & Steel Limited’s operations in Goa, covering gaseous and particulate emissions. The project will include two stack gas analysers for SO₂ and NOx, along with two online SPM analysers for continuous dust and particulate monitoring across two monitoring locations. The CEMS solution will enable continuous emissions data collection for centralized monitoring and reporting. The scope will also include dedicated porta cabins to house the analysers and associated panels, together with the required electrical and utility infrastructure, CPCB server connectivity and CAMC support. Through this integrated project scope, Aaxis Nano will deliver the monitoring systems and supporting infrastructure required for continuous emissions monitoring at the facility. Aaxis Nano Technologies Pvt. Ltd. Ambient Air Quality Monitoring | Water Quality Monitoring | Noise Monitoring | Meteorological Monitoring | Data Management & Connectivity | Environmental Monitoring | Operation & Maintenance

News

Aaxis Nano Technologies Entrusted with Integrated Environmental Monitoring Project at Haldia Dock Complex

CONTINUOUS ENVIRONMENT MONITORING Aaxis Nano Advances Integrated Environmental Monitoring at Haldia Dock Complex 18 September 2026  | West Bengal, India Haldia Dock Complex, West Bengal | CAAQMS | CWQMS | CNMS | Portable Air Monitoring | 6-Year O&M The Project Aaxis Nano Technologies has been entrusted with the supply, installation and commissioning of an integrated environmental monitoring system at Haldia Dock Complex, West Bengal. The project brings together continuous ambient air quality, meteorological, noise and water quality monitoring to support comprehensive environmental surveillance across the dock complex. Integrated Environmental Monitoring The project combines multiple monitoring systems across key environmental parameters: CAAQMS for continuous ambient air-quality monitoring Meteorological Monitoring for associated environmental conditions CNMS for continuous noise monitoring CWQMS for critical water-quality monitoring Portable / Pole-Mounted CAAQMS for additional air-quality monitoring The deployment includes container-based monitoring systems supported by workstations, central data management, real-time data transmission and day-night visible display boards. From Field Measurements to Centralized Data The monitoring infrastructure is designed to bring environmental measurements into a connected data-management framework. The systems will transmit monitoring data to Haldia Dock Complex and designated CPCB, WBPCB and MoPSW platforms, supporting centralized access to environmental information. Built for Long-Term Performance The project includes six years of Operation and Comprehensive Annual Maintenance, supporting sustained system performance, calibration, maintenance and reliable environmental data availability beyond installation and commissioning. The Aaxis Approach By bringing air quality, meteorology, noise and water-quality monitoring together within a connected environmental monitoring framework, Aaxis Nano is delivering an integrated infrastructure designed to support comprehensive environmental surveillance across the Haldia Dock Complex. Aaxis Nano Technologies Pvt. Ltd. Ambient Air Quality Monitoring | Water Quality Monitoring | Noise Monitoring | Meteorological Monitoring | Data Management & Connectivity | Environmental Monitoring | Operation & Maintenance

CAAQMS—Continuous Ambient Air Quality Monitoring System, Case Studies

From Mine Sites to Real-Time Air Quality: Aaxis Nano Advances Monitoring at Surda Mines

3 Ambient air quality monitoring systems From Mine Sites to Real-Time Air Quality: AaxisNano Advances Monitoring at Surda Mines 18 September 2026  | Jharkhand, India 3 Monitoring Stations | 5 Air Quality Parameters | Real-Time Monitoring Aaxis Nano Technologies designed, supplied, installed, tested and commissioned three Continuous Ambient Air Quality Monitoring Stations (CAAQMS) for Hindustan Copper Limited (HCL) at the Surda Mines in Jharkhand. The deployment brings together continuous air-quality measurement, meteorologicalmonitoring and connected data management. Continuous Monitoring at Surda Mines Monitoring air quality around mining operations requires reliable field infrastructure, consistent measurements and timely access to collected data. The three CAAQMS stations cover upwind and downwind directions within a 5 km periphery of the mine. Each station integrates ambient air analysers, gas sampling systems, meteorological sensors and data acquisition infrastructure. Dedicated station shelters support calibration, maintenance, power distribution and reliable field operation. Integrated Air Quality & Meteorological Measurement The stations monitor SO₂, NO–NO₂–NOx, CO, PM₂.₅ and PM₁₀ using UV fluorescence, chemiluminescence, NDIR spectroscopy and β-ray attenuation measurement technologies. The system also records wind speed, wind direction, ambient temperature, relative humidity, rainfalland solar radiation, providing meteorological context to the air-quality data. Connected Data. Centralised Visibility. Three local Data Acquisition Systems and one Central DAS support data logging, display and transfer from the monitoring stations. Static IP-based communication connects the stations with CPCB and JSPCB servers, supporting online data transmission. The project also provides for remote calibration and online data transmission to JSPCB/CPCB for three years. Calibration. Validation. Reliable Data. The system includes multi-gas calibration equipment, zero-air generation and calibration gas cylinders to support analyser calibration. Together, the monitoring stations provide Hindustan Copper Limited with a connected view of ambient air conditions, bringing field measurements, meteorological observations and regulatory data connectivity into a common monitoring framework. Aaxis Nano Technologies Pvt. Ltd. Effluent Monitoring | OCEMS | Water Quality Monitoring | Data Acquisition & Connectivity | Real- Time Monitoring | Environmental Monitoring | Automation

Events

6th Annual Conference on Digitalisation of City Gas Distribution Networks

6th Annual Conference on Digitalisation of CGD Networks Aaxis Nano Technologies Showcases Smart Solutions for the Future of City Gas Distribution Networks 11 August 2026  | Delhi, India Aaxis Nano Technologies Pvt. Ltd. particpated as a co-sponsor at the 6th Annual Conference on Digitalisation of City Gas Distribution (CGD) Networks, held on 11–12 August 2026 at Le Méridien, New Delhi. The conference brought together leading CGD operators, industry experts, consultants, technology providers, utilities, and other stakeholders to discuss the evolving landscape of city gas distribution and the technologies shaping its future. As a co-sponsor and technology solutions provider, Aaxis Nano used the platform to engage with industry professionals and showcase its capabilities across gas detection, field monitoring, IoT connectivity, automation, and mobile surveillance. Sharing Expertise on Advanced Mobile Gas Leak Detection A key highlight of the event was our team’s presentation on “Advanced Mobile Gas Leak Detection,” which explored practical approaches to identifying and locating gas leaks across CGD networks. The presentation showcased advanced gas detection solutions from ABB and Badger Meter, demonstrating how mobile detection technologies can support field teams in improving leak identification, network surveillance, and response capabilities. The session also highlighted the importance of combining reliable instrumentation, mobility, and data-driven approaches to enable more effective field operations and faster access to actionable information. Connecting Field Intelligence with Digital Infrastructure With CGD networks becoming increasingly connected, the ability to capture accurate field data and make it available at the right time is becoming critical for efficient network management. At the conference, Aaxis Nano highlighted how gas detection, measurement, connectivity, automation, and digital technologies can work together to create greater operational visibility—from field-level monitoring and leak detection to remote data transmission and informed decision-making. These connected approaches can help CGD operators strengthen safety, monitoring, responsiveness, and overall operational efficiency, while supporting the industry’s transition towards smarter and more digitally enabled infrastructure. The event also created valuable opportunities for our team to connect with industry leaders and professionals, exchange ideas, and understand emerging technology requirements across the CGD sector. The conversations reinforced the industry’s growing focus on safer, smarter, and more connected gas distribution networks. Technologies Showcased by Aaxis Nano As part of our participation, Aaxis Nano showcased a range of solutions supporting gas detection, field monitoring, digital connectivity, automation, and mobile surveillance: ABB MicroGuard – Advanced gas monitoring for dependable detection and safety applications. IoT Solutions – Connected systems enabling remote access, data visibility, and smarter operational decisions. ATI D16 PortaSens – Portable gas detection for flexible field measurements and on-site assessments. ATI Q55S Wet H₂S Gas Detector – Continuous hydrogen sulphide detection for challenging wet-gas environments. Siemens Industrial Automation Solutions – Automation and control technologies supporting reliable and efficient operations. Mobile Monitoring Van – A flexible platform for mobile gas detection, field surveillance, measurement, and data acquisition. Aaxis Nano sincerely thanks everyone who visited our booth, attended the presentation, and engaged with our team during the conference. We are grateful for the opportunity to be part of this industry platform as a co-sponsor and look forward to building on these interactions and contributing to the development of safer, smarter, and more connected CGD networks.

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