Carbon-Neutral Strategies for Project Managers

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Summary

Carbon-neutral strategies for project managers involve planning and implementing methods that minimize or eliminate carbon emissions throughout the lifecycle of a project. These approaches are designed to make buildings, construction, and project operations more sustainable and environmentally friendly without sacrificing performance or quality.

  • Preserve existing materials: Focus on conserving and repairing materials already present in your project rather than replacing them, which saves energy and reduces emissions.
  • Automate building systems: Use automation tools to monitor and adjust energy use, lighting, and climate controls, helping to reduce waste and lower your project’s carbon footprint.
  • Prioritize stakeholder cooperation: Work closely with all team members—including suppliers, contractors, and clients—to ensure everyone supports carbon-reducing measures throughout the project.
Summarized by AI based on LinkedIn member posts
  • View profile for Jeremy Edwards, AIA, M.S.

    Leading the Preservation of the Woolworth Building | Featured in The Architect’s Newspaper

    2,774 followers

    When I was entrusted with the Woolworth Building at 27 by Facade Maintenance Design Engineering. I understood the gravity of what that meant. To be responsible for a national landmark is to hold a piece of history in your hands but I also saw an opportunity to shape its future. I began to imagine this building not just as a masterpiece of its time, but as a template for how our historic buildings can adapt to a changing climate. The Woolworth Building, completed in 1913, has lived through every era of New York’s evolution. Now, in a new century defined by carbon, heat, and resilience, its restoration has become a template for how climate, architecture, and people can work in synergy. This restoration is climate engineering which is a process measured through data, chemistry, and the intelligence of materials themselves. On this national landmark, I am employing a framework of Carbon and Energy Strategies that reimagine preservation as both a scientific and a human act. Carbon Strategies 1. Carbon Kept - Preserving the embodied energy already held within historic materials. 2. Carbon Saved - Avoiding emissions by repairing instead of replacing. 3. Carbon Absorbed - Using lime-based materials that naturally reabsorb carbon dioxide over time. 4. Carbon Deferred - Extending the life of materials and postponing future emissions. Energy Strategies 1. Thermodynamic Conservation - Stabilizing temperature and storing energy within the building’s mass. 2. Environmental Equilibrium - Allowing the structure to breathe, balancing heat and moisture through natural exchange. 3. Optical Performance - Restoring reflective finishes to reduce solar absorption and mitigate urban heat gain. 4. Lifecycle Efficiency - Extending lifespan to reduce both embodied and operational energy across generations. These strategies work together to turn the Woolworth Building into more than a restoration; they transform it into a climate instrument, alive within its environment and responsive to light, air, and time. What makes this precedent powerful is that it proves something profoundly hopeful: that our past architecture can lead our future. If a 112-year-old national landmark can adapt without losing its soul, then every building can. The Woolworth Building is not being restored to what it was; it is being recalibrated for what it must become. #ny #sustainability #preservation #newyorkcity #buildingperformance The New York Times The Wall Street Journal Architectural Digest The American Institute of Architects (AIA) The New Yorker Dezeen Architects’ Journal The Architectural Review Spitzer School of Architecture Columbia University Graduate School of Architecture, Planning & Preservation Harvard University Graduate School of Design Yale University Cornell University College of Architecture, Art, and Planning Pratt Institute School of Architecture AIA New York | Center for Architecture National Trust for Historic Preservation The Durst Organization

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  • View profile for Steven Dodd

    Transforming Facilities with Strategic HVAC Optimization and BAS Integration! Kelso Your Building’s Reliability Partner

    31,353 followers

    Carbon Reduction with your BAS? Low-cost building automation strategies can play a significant role in achieving carbon reduction goals by optimizing energy use, improving operational efficiency, and reducing waste. Here are some strategies that can be implemented to help reduce carbon emissions without significant capital investments: Energy Monitoring and Benchmarking: Implement a basic energy monitoring system to track and benchmark energy use across the building. Many energy management systems can be integrated with BAS for minimal cost. Identifies areas of excessive energy consumption, allowing for targeted improvements, reducing waste and carbon emissions. Optimized HVAC Schedules: Use BAS to automate HVAC schedules based on occupancy, seasonality, and operational needs. Turn off or reduce HVAC operations during unoccupied hours or in unused spaces. Reduces energy consumption and emissions from heating, ventilation, and cooling systems. Setpoint Optimization: Adjust temperature setpoints slightly (e.g., increasing cooling setpoints or reducing heating setpoints) within comfortable ranges. Small setpoint changes can lead to significant energy savings over time, reducing carbon emissions from HVAC systems. Demand-Controlled Ventilation (DCV): Integrate sensors that measure CO2 levels in spaces to control ventilation rates dynamically, providing fresh air only when needed based on occupancy. Reduces the energy required for ventilation, cutting down on unnecessary heating or cooling of outdoor air. Lighting Control Systems: Install automated lighting controls (e.g., motion sensors, daylight harvesting) and integrate them with the building automation system to optimize lighting use. Reduced lighting energy consumption translates directly to lower electricity use and carbon emissions. Variable Frequency Drives (VFDs) for Motors: Add VFDs to fans, pumps, and other motor-driven systems, allowing their speed to adjust based on demand rather than running at full capacity. VFDs reduce energy consumption by matching motor speed to actual demand, reducing energy waste and carbon output. Continuous Commissioning: Use BAS data to continuously monitor building systems and performance. Identify inefficiencies and make ongoing adjustments to optimize energy use. Ensures systems are running efficiently, preventing energy waste and emissions over time. Free Cooling (Economizers), Ensure that economizers are properly maintained and optimized to use outside air for cooling when outdoor conditions are favorable. Reduces the need for mechanical cooling, saving energy and cutting emissions. Remote Monitoring and Management: Use remote monitoring and automation tools to adjust system settings and identify energy-saving opportunities without requiring onsite personnel. Allows for better oversight and proactive adjustments, avoiding wasted energy and unnecessary emissions. These strategies, when combined with an ongoing commitment to energy

  • View profile for Naveen Lopes

    Project Controls Leader . Trainer & Mentor . Building Project Excellence

    24,987 followers

    Decarbonisation in EPC Projects and Role of Project Controls In the EPC capital projects’ space, remarkable work is being done in the industry for decarbonisation of the facility operations and manufacturing of products. However, a key part of achieving project excellence is also to work towards controlling the emissions during; 1)  The EPC project execution and construction phase. 2)  The emission embedded in the manufacturing of the project materials. This post is about point 1) If the EPC cycle is broken down further, various studies reveal the following contribution of emissions in each phase: Design, Engineering and Management – 1% Manufacturing / Fabrication – 84% Transportation /Logistics – 5% Installation / Erection – 5% Even though Design & Engineering is about 1%, it influences the other 99% Some measures which can be implemented are; 1)  Design Considerations: Optimising the facility footprint, avoiding over-specifications, increased usage of scrap materials and recyclable materials, Reducing construction material wastage by using circular economy techniques.   2)  Execution Methodology:  Employing electrified construction machinery. Reduce on-site fabrication and increase modularisation. Proper Planning and sequencing of assembly & erection. Improved scheduling to avoid idling of machinery and resources. Implement AWP (Advanced Work package) system. Include decarbonisation requirements during Constructibility reviews and Model reviews. Optimise construction resources – Water, power, fuel and site facilities.   3)  Logistics Considerations : Efficient project planning to avoid air freight of critical project equipment. Optimise material handling, storage and preservation. Detailed planning and collaboration with vendors, logistics team, contractors and suppliers   4)  Digital solutions : Carbon Measuring and monitoring tools to track EPC project impacts across multiple sites. Embedded carbon calculator in construction and installation. AI Simulations to model and optimise emissions during engineering phase.   5)  Cooperation of all Project Stakeholders : Decarbonisation in EPC projects cannot be achieved successfully without the full support and involvement of Owner operators, Main Contractors, Consultant, Subcontractors, OEM, and Suppliers. How can Project Controls contribute to the above scenario? As PC folks are responsible for integrating, monitoring and reporting the Project parameters, we can actively play a key role. Some Examples : - Involve in the creation of a Carbon Index KPI for Construction, alongside the other KPI’s such as SPI and CPI. Tracking and Reporting the KPI. - Support in updating the Project execution strategies and workflows to align with decarbonisation objectives. - Support the Strategy department in deploying initiatives across projects and aligning contractors and vendors What else would you add? Do share your thoughts on this topic... #projectcontrols #decarbonisation

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