NIYANTRAC 2.0 aims to enhance energy efficiency and asset performance across Indian Railways by IoT-based real-time monitoring and data analytics. The project supports the Indian Railways’ goal of achieving net-zero carbon emissions by 2030, optimizing energy use, and reducing operational costs.

-Centralized energy monitoring of railway assets via IoT devices.

-Mobile app suite for remote control and monitoring.

-Data analytics and performance benchmarking for energy efficiency.

-Piloting IoT-based solutions in the Northern Railway Zone.

-Training programs for IR and CRIS teams on energy management and operational efficiency. 

This project involved providing technical expertise for the Conscious Collective 2024 initiative, focusing on climate-resilient and low-carbon building practices. IDSPL prepared a comprehensive technical report on sustainable building strategies and developed an interactive gaming application to raise awareness about the urban heat island (UHI) effect and mitigation techniques.

-Detailed report on climate-resilient, low-carbon buildings.

-Development of an interactive gaming app to simulate UHI effects and solutions

-Promotion of sustainable design strategies through engaging, educational tools.

-Collaboration with CEEW to support outreach and awareness initiatives.

This project involves the retrofitting of the HVAC system in UNICEF’s Headquarters in India with ultra-low energy systems while ensuring comfort and air quality. IDSPL provided support in the implementation of energy-efficient technologies and passive cooling strategies to reduce energy consumption and carbon footprint.

-Energy-efficient HVAC systems with smart controls.

-Passive cooling techniques and heat recovery systems.

-Real-time energy monitoring for performance tracking.

The project focused on conducting a benchmarking study to assess the energy performance of residential units at Lodha Palava and developing a digital twin for simulation and monitoring. IDSPL provided insights into energy usage patterns, optimized energy efficiency strategies, and created a digital twin to model and enhance the performance of these residential units.

-Energy benchmarking to identify and analyze consumption patterns.

-Development of a digital twin for real-time simulation and performance optimization.

-Data-driven recommendations to enhance energy efficiency.

-Integration of advanced modelling tools for continuous monitoring and improvement.

Developed knowledge products on operational energy efficiency, maintenance practices, and refrigerant management in the Residential AC sector. Conducted specialized short-term capacity building workshops for RAC technicians nationwide. Integrated innovative practices, including AI & Machine Learning tools, for enhanced operational performance. Implemented mechanisms for disseminating knowledge to HVAC-R users through incentivized strategies. Created training materials tailored for RAC technicians working on unitary Direct Expansion systems. Executed a training program for around 2,000 RAC technicians in 50 locations across India. Collaborated with ISHRAE as a technical partner for material development and workshop execution.

This research project involved the estimation of the impact of UHI in the built environment of Delhi using advanced tools like Rhino with Grasshopper and Ladybug addons. The study involved collection of weather data analysis at micro, meso and macro levels (Site level, Precinct level and City Level) and modelling it using the software tools. The impact of vegetation, water bodies and landscaping were estimated by defining their geometric and thermal properties. The surface temperature at different levels are visualized using the maps with temperature ranges plotted on them. This study intends to develop GDCR for the city based on the UHI effects and support develop a sustainable built environment.

This assignment was part of the Design Innovation Center project by Ministry of Human Resources Department to SPA Delhi. SPA is developing an innovative external moveable shading system (EMSS) for reducing solar discomfort in the various climatic region of India. The assignment intends to provide technical support for the prototype development for EMSS by identifying the critical solar angles that cause solar heat gain affecting thermal comfort in a building. The work will be accomplished through Python scripting in Grasshopper and modelling in Rhino.

Review of building design for modification of the façade, considering orientation, massing, number and type of openings, and selection of building envelope materials. Analysis of the building design using building energy simulation tools to determine cooling load and annual energy consumption. Support provided for selection of construction materials for walls, roof, and landscaping to optimize energy efficiency. Estimation of the capacity of façade and landscape integrated evaporative cooling system. Provision of inputs to the cooling system designer regarding the size of the evaporative cooling surface area, face velocity, and air flow rate to meet ventilation requirements.

Reviewed building design for modification of the façade, considering orientation, massing, number and type of openings, and selection of building envelope materials. Conducted analysis of the building design using building energy simulation tools to determine cooling load and annual energy consumption. Provided support for selection of construction materials for walls, roof, and skylights to optimize energy efficiency.

Estimated the capacity of façade and landscape integrated evaporative cooling system. Offered inputs to the cooling system designer regarding the size of the evaporative cooling surface area, face velocity, and air flow rate to meet ventilation requirements. Developed the design for a solar PV system to reduce heat ingress through skylights based on shadow analysis.

Identified and invited experts for seven webinars on NIK cooling technologies. Reached out to building sector professionals, coordinated registrations, and ensured participation in webinars. Presented an overview of NIK cooling technologies, emphasizing principles and benefits. Shared case studies showcasing the implementation of NIK cooling technologies in various settings. Facilitated discussions on best practices, lessons learned, and overcoming adoption challenges. Conducted Q&A sessions and networking opportunities for knowledge-sharing and collaboration. Compiled open-source resources on NIK cooling technologies for easy access by attendees. Organized a Panel Discussion on NIK technology use in educational campuses at AICTech 2023 Conference, promoting stakeholder engagement and discussion.