Integrated Lighting Resources

Do you have a lighting project that is worthy of ILC recognition? This webinar is for building or facility owners and managers interested in tapping into the benefits of advanced lighting systems and/or the integration of lighting with other building systems. Learn how to access practical resources, gain access to technical assistance and guidance, and receive recognition for your advanced lighting projects. Speakers introduced new recognition categories and explained how to successfully submit your project for recognition. Join other industry professionals like you who are using advanced lighting to improve energy efficiency, operations, and occupant comfort.

This fact sheet covers the potential for deeper energy savings and occupant comfort through the integration of lighting controls and automated shading. Research conducted by Lawrence Berkeley National Laboratory found an annual energy savings up to 30% in controlled zones compared to a baseline lighting system. Furthermore, occupant comfort (i.e., non-energy benefit) potential was identified, as the system maintained an acceptable level of Daylight Glare Probability at almost all times and maintained illuminance at the workplane at all times.

This presentation from Michael Myer, Lighting Researcher at Pacific Northwest National Laboratory, covers energy savings potential for lighting systems integrated with HVAC and plug loads, reviewing findings from several field project case studies conducted on behalf of the U.S. Department of Energy.

The Integrated Lighting Campaign (ILC) confers recognition each year to organizations that are helping drive the adoption of advanced lighting systems and the integration of lighting with other buildings and business systems. Supporters (e.g., utilities, designers, ESCOs, energy efficiency organizations, and manufacturers) help the campaign identify and recruit exemplary projects that may be eligible for recognition from DOE. Learn about the new recognition categories for Participants and opportunities available to Supporters, including recognition available as an Exemplary Supporter or DEI Champion and how your products and/or services may be featured in a future case study. For more please visit Better Buildings.

Interested in submitting a lighting project for recognition to the Integrated Lighting Campaign? Learn about the recognition categories, four of which are new in 2023. Participants and Supporters now have more opportunity than ever to get recognized by DOE!

The Lighting Controls Association offers free, comprehensive online education about lighting controls technology and application.

This course, available through Lighting Controls Association, an ILC Organizing and Supporting partner, is offered via its Education Express program.  Learn more about the Education Express program by filtering “Webinars | Training” on the right panel.

NextEnergy's Lighting Technology Energy Solutions (LiTES) Program, a three-year public-private partnership with the DOE, DTE, Consumers Energy, and IBEW.
The LiTES Program sought to reduce energy use in small and medium commercial buildings by accelerating the adoption of advanced/networked lighting controls (ALC/NLC) through contractor training and technology deployment. Leveraging recommendations already outlined by the Design Lights Consortium Commercial Advanced Lighting Controls (DLC CALC) project, NextEnergy led an effort to train contractors, evaluate the experience of ALC/NLC demonstration projects, identify opportunities to reduce market barriers, and accelerate the increased adoption of ALC/NLC technologies within SMCB, which represent 90% of the U.S. commercial building stock.

NextEnergy led an effort to train contractors, evaluate the experience of ALC/NLC demonstration projects, identify opportunities to reduce market barriers, and accelerate the increased adoption of ALC/NLC technologies within small and medium commercial buildings (SMCB). The LiTES Program defined SMCB as commercial buildings under 100,000 square feet. The LiTES Program efforts also included evaluating current ALC/NLC utility incentives, piloting ALC/NLC incentives specific to SMCB, and identifying opportunities to better align utility incentives with current ALC/NLC technology to support accelerating the adoption of ALC/NLC in SMCB.

The LiTES Program  sought to reduce energy use in small and medium commercial buildings (SMCB) by accelerating the adoption of ALC/NLC through contractor training and technology deployment. Leveraging recommendations already outlined by the DesignLights Consortium Commercial Advanced Lighting Controls (DLC CALC) project, NextEnergy, in coordination with partners, led an effort to train contractors and evaluate the experience of ALC/NLC system demonstration projects in small and medium commercial buildings.

This presentation from Kenny Seeton, Central Plant Manager at California State University – Dominguez Hills, covers the opportunities and benefits of occupancy-based unified controls using Welch Hall as a case study.  Kenny discusses the basis of controls design process, matching lighting and HVAC zones, and energy savings opportunities of integrating lighting with a building automation system.

Fact sheet of three-month study of NREL's Research Support Facility (RSF) that demonstrated that a device inventory and a limited device-level metering effort can produce a disaggregated plug load breakdown, uncovering energy savings opportunities. This study is limited to the RSF, however, and should be validated in other buildings to see if the method is generally effective.

Success with lighting controls depends on establishing clearly defined objectives and taking a disciplined approach to design and implementation. This practical guide describes four common use cases for lighting controls and outlines the implementation process, from planning through maintenance. These recommended best practices reflect the experience of practitioners and serve to reduce complexity and the likelihood of problems when installing and using lighting controls.

Connected lighting systems provide a platform where integrated control of lighting and other systems can enhance building performance. With detailed information, coordinated systems can deliver lower operating costs and improved return on capital, as well as enhanced occupant wellbeing and productivity.

This class examines examples of integrating lighting controls with other building controls, primarily HVAC. Rather than presenting a set of established best practices, it reviews a few notable case studies of commercial and institutional buildings where integration has been both successful and challenging. Presenters describe the design process, how key decision points were identified, and how issues were resolved. They also cover Owners Project Requirements, Basis of Design, and Sequence of Operations, and report on commissioning and post occupancy evaluations.

This presentation from Kandice Cohen, Director of Lighting Strategy at Trane Technologies, covers the reasons integrating lighting systems is beneficial, using a “Baker’s Dozen” commercial kitchen as a case study.  Kandice discusses the integration of the connected lighting control system with the building automation system and how it meets the customer’s needs.

GSA's GPG program commissioned LBNL to assess wreless ALC at two federal sites in Northern California.  Results showed 54% normalized energy savings for GSA when fluorescent lamps with dimmable ballasts were retrofitted with wireless ALC, and 78% when the wireless ALC retrofit was coupled with LED fixtures. Wireless ALC integrated with LED fixtures is recommended for new construction and renovations, with simple payback between 3 and 6 years. It should also be considered for retrofits in facilities with minimal existing controls, high lighting energy usage, and high electricity costs.

GSA’s Green Proving Ground program recently assessed the potential of wireless sensor technology to provide a cost-effective and facilities-friendly way of helping data center operators visualize and implement system changes that reduce overall energy consumption. Findings include significant cost savings, as well as a substantial reduction in cooling load and CO2 emissions.  Sensors utilizing a wireless mesh network and data management software to capture and graphically display real time conditions for energy optimization were installed in a demonstration project.