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Energy Resource Center

Location

Downey, CA

USA

Content Type
  • Building
Building type
Commercial office
Building type
Assembly
Floor Area (ft2)
44572.0
Floor Area (m2)
4140
Date of Occupancy/ Completion
1995.0
Annual Purchased Energy (kBtu/ft2)
186
Annual Purchased Energy (MJ/m2)
2115
Total Project Cost (land excluded)($US)
6758642.0
Certifications & Awards
  • LEED-NC v.1.0 achievement level Certified
Project Team
  • Owner: Southern California Gas Company

Summary

The Energy Resource Center (ERC) serves as a one-stop "idea shop" for customers to find the most efficient, cost-effective, and environmentally sensitive solutions to their energy needs. The ERC was built from a 1957 office complex, with the design goal of optimizing energy-efficiency while maintaining high-quality, high-performance spaces. Energy efficiency, indoor air quality, and resource conservation were all key goals.

**This building was originally imported from the U.S. Department of Energy Energy Efficiency and Renewable Energy

Building Technologies Database (http://eere.buildinggreen.com/overview.cfm?projectid=45) on 2009-06-06. Please confirm that the import was successful, login, and remove this message. Help make the Green Building Brain better.**

Overview

  • Location: Downey, CA
  • Building type(s): Assembly, Commercial office
  • 44,600 sq. feet (4,140 sq. meters)
  • Project scope: 2-story building
  • Completed 1995
    The ERC was renovated from a 1957 office complex.

  • Rating: U.S. Green Building Council LEED-NC, v.1.0--Level: Certified

The Energy Resource Center (ERC) serves as a one-stop "idea shop" for customers to find the most efficient, cost-effective, and environmentally sensitive solutions to their energy needs. The ERC was built from a 1957 office complex, with the design goal of optimizing energy-efficiency while maintaining high-quality, high-performance spaces. Energy efficiency, indoor air quality, and resource conservation were all key goals.

Environmental Aspects

A primary goal of the design and construction of the ERC was to be able to advance energy-efficiency and environmental innovation for others. Essentially, the structure acts as a showcase building integrating not only top-quality energy strategies, but also environmental material choices and indoor environmental quality elements.

Owner & Occupancy

  • Owned and occupied by Southern California Gas Company, Corporation, for-profit

Keywords

Efficient fixtures and appliances, Insulation levels, Glazing, Efficient lighting, Benign materials, Salvaged materials, Recycled materials, C&D waste management, Daylighting, Natural ventilation, Ventilation effectiveness, Low-emitting materials, Indoor air quality monitoring

Team & Process

CTG Energetics, Inc. Environmental building consultant Irvine, CA [http://www.ctg-net.com](http://www.ctg-net.com)
John Picard E2 Environmental building consultant Los Angeles, CA
Healthy Building International, Inc. (Western Region) IEQ consultant (IAQ Consultant) Irvine, CA [http://www.hbiamerica.com](http://www.hbiamerica.com)
Robert Bein, William Frost, and Associates Commissioning agent Irvine, CA
Turner Construction Company Contractor [http://www.turnerconstruction.com](http://www.turnerconstruction.com)
[](learnmore.cfm?ProjectID=45) [WLC Architects, Inc.](learnmore.cfm?ProjectID=45) Architect Rancho Cucamonga, CA [http://www.wlc-architects.com/](http://www.wlc-architects.com/)

The design team also included:

  • Owner/developer

Finance & Cost

Cost data in U.S. dollars as of date of completion.

  • Total project cost (land excluded): $6,758,642

The recycled ERC cost less to build than would a conventionally constructed project of a similar nature. Cost benefits for recycled buildings increase when consideration is given to savings generated from site improvements, building portions retained, the use of in-place utility infrastructure, and avoided property acquisition.

Cost benefits further accrue when energy efficiency considerations are applied over the expected facility life (for example, the UPS electrical system from the former gas company facility was reused, alleviating a $20,000 expenditure for a new system; the building's automatic transfer switch was also reused, for a $5,000 saving). Energy-efficient lighting systems have relatively short payback periods: the skylights have a 2-5 year payback and occupancy and light sensors have a 1-3 year payback.

Increased worker productivity due to a better work environment will pay great dividends.

Bringing you a prosperous future where energy is clean, abundant, reliable, and affordable

Site Description

The design team chose plumbing fixtures and landscaping practices that reduce water, energy, and sewage treatment requirements. Ultra-low-flow toilets, which reduce water usage by at least 50% compared to conventional toilets, were used; the Los Angeles Department of Water and Power provides rebates for the installation of ultra-low-flow toilets. Drip irrigation was specified and installed for water-conserving landscaping.

  • Preexisting structure(s), Previously developed land

  • Low-Water-Use Fixtures

    • Use low-flow toilets
  • Demand for Irrigation

    • Select plants for drought tolerance
  • Irrigation Systems

    • Use water-efficient irrigation fixtures
  • Water Conservation Incentives

    • Check for rebates on water-conserving fixtures and landscaping
  • Low-Impact Siting

    • Look for opportunities to combine needs with infrastructure

Energy

Energy efficiency at the Energy Resource Center is achieved through careful integration of lighting, heating, cooling, insulation, and energy management control systems. Design techniques and building technologies work together to minimize heating and cooling requirements, maximize the use of natural daylight, and maintain high indoor air quality.

Computer modules indicate that the ERC exceeded California Energy Commission Title 24 standards for new buildings by 40%.

Non-CFC, rigid-foam insulation was added to the walls, reducing heat transfer by 50%. Roof insulation in the remodeled east and west sections provides an R-value of 38, double the R-value of traditional California roofs. Insulation on the new center roof section has an R-value of 30.

Careful sealing of doors and seams minimizes energy loss through air infiltration.

A highly reflective roof coating reduces heat absorption between 10% and 40%, dramatically decreasing air-conditioning requirements. Its reflective roof also decreases the ERC's contribution to the urban heat island effect.

Low-e glass windows further reduce heating and cooling needs by allowing little heat to penetrate during warm months or escape during winter.

Skylights and translucent window walls allow natural daylight to illuminate interior spaces. (These daylighting techniques, combined with energy-efficient lighting systems, reduce electric lighting requirements by 40%, to slightly less than one watt per ft2.)

Installation of T-8 compact fluorescent lamps and electronic ballasts, dimmer switches, and occupancy and light sensors reduces energy demand. High-efficiency lighting also reduces internal heat load, requiring less energy for air conditioning.

Both gas and electric heating and cooling systems were installed in the ERC, thereby minimizing energy requirements. (The four systems include: indirect/direct evaporative cooling, desiccant units, absorption chillers/heaters, and package units.)

An automated energy management system monitors all major building conditions—temperature, airflow, lighting, energy use, etc.—and adjusts them for energy efficiency.

 

Materials & Resources

The ERC design team sought to minimize the use of natural resources by decreasing consumption, reusing materials, recycling, incorporating products that contain post-consumer recycled content, and avoiding materials that threaten fragile ecosystems.

About 80% of all ERC construction materials, interior furnishings, and displays are recycled, contain recycled materials, or are made of renewable resources.

Recycled-content building materials were incorporated throughout the ERC, including recycled steel, glass tiles, and plastic bathroom partitions.

Materials were specified to protect fragile ecosystems when possible; virgin products were avoided. For example, the ERC entry lobby is laid with reprocessed wood from an old Banana Republic warehouse.

Of note is the first carpet "lease back" program; instead of purchasing carpet, the ERC leases the services it provides. Another interesting building material at the ERC is rebar made from confiscated weapons acquired through the LA Sheriff's Department.

The existing Gas Company building was reused; instead of demolishing the 1957 office complex, the structure was dismantled as needed. (Approximately 60% of the old building materials were either left in place, removed for future reinstallation, or recycled.

Steps were taken to reduce the amount of waste destined for local landfills by recycling hundreds of tons of demolition material. Items separated for recycling included: concrete (232 tons sent to crushers and recyclers), asphalt (820 tons), metal (57 tons), drywall (27 tons), and roofing materials (23 tons).

  • Building Deconstruction

    • Reuse existing structure
    • Investigate local markets for salvage and recycling
    • Identify items to be reused from existing structure
    • Recycle materials to be discarded from existing structure
  • Recyclable Materials

    • Consider green leasing of materials and furnishings
  • Job Site Recycling

    • Investigate local infrastructure for recycling
    • Require that subcontractors keep their wastes separate
  • Post-Consumer Recycled Materials

    • Use plastic toilet partitions made from recycled plastic
  • Salvaged Materials

    • Use salvaged wood for finish carpentry

Indoor Environment

The Energy Resource Center's designs, systems, and material choices optimize the quality of the indoor environment. Efforts were made to minimize the installation of products containing toxic substances and to maximize the use of fresh air in energy-efficient ventilation systems.

Designers avoided, where feasible, selecting materials that offgas harmful chemicals. Sensors to monitor carbon dioxide levels and control air intake were specified to optimize indoor air quality as well as energy efficiency in the main exhibit hall. Periodic inspection and maintenance of the ERC's air-conditioning systems were specified to insure optimal indoor air quality.

Indoor Air Quality (IAQ) consultants reviewed and evaluated the building design, including construction materials and mechanical systems; developed a plan outlining IAQ commissioning guidelines to allow the establishment of baselines for indoor environment shortly after the building was occupied; and established an IAQ monitoring program to evaluate the building construction practices.

Air quality in the ERC meets ASHRAE Standard 62. Carbon dioxide levels will be monitored and kept below 700 ppm. Airborne particulate levels in the supply-air to the building will be controlled by the use of 12"-deep box filters and 2"-deep pleated panel filters in the main Air Handling Units, with respective efficiencies of 65% and 35% as determined by ASHRAE Atmospheric Dust Spot Test. Desiccant cooling systems are installed in the kitchen areas, where higher than normal latent heat loads are expected. Prior to occupancy, ventilation procedures were carried out to minimize the build-up of construction pollutants.

  • Entry of Pollutants

    • Keep positive pressure in the building
    • Avoid carpet and other hard-to-clean floor surfaces near entry
  • Visual Comfort and The Building Envelope

    • Use skylights and/or clerestories for daylighting
  • Ventilation and Filtration Systems

    • Specify ventilation rates that meet or exceed ASHRAE Standard 62-1999

    • Include high-efficiency air filtration system with prefilters and final filters

  • Moisture Control in Mechanical Systems

    • Use active dehumidification
  • Maintenance for IEQ

    • Specify routine maintenance for HVAC system and check performance of system

  • Facility Policies for IEQ

    • Establish specific construction or renovation protocols for preventing future IAQ problems

    • Recommend a non-smoking policy for the building

Awards

  • AIA/COTE Top Ten Green Projects in 1998

Ratings

  • U.S. Green Building Council LEED-NC, v.1.0 achievement level: Certified

Lessons Learned

A designated environmental consultant was hired to oversee the environmental aspects and choices made throughout the design and construction process of this project. In addition, other players with expertise in the emerging sustainable architecture field, such as an IAQ consultant and a commissioning agent, were integral to the realization of this endeavor.

Learn More

It is possible to visit this project and tours are available. The ERC is located approximately 20 miles east of Los Angeles at 9240 E. Firestone Boulevard in Downey, California.

A map and directions to the ERC are available on-line.

Please call 1-800-427-6584 for more information.

The Southern California Gas Company offers an on-line tour of the ERC.

  • Web sites

    • Southern California Gas Company's ERC Web site

      This site includes a description of the center itself as well as information about various technologies showcased there. Also included are a list of seminars to be held at the ERC, tips for energy-efficiency, and links to other recommended energy-related Web sites.

*Primary Contact* Holly Tucker Southern California Gas Company Sustainable Buildings Coordinator 9240 East Firestone Boulevard Downey, CA  90241-5388 562-803-7400
WLC Architects, Inc. Architect 10470 Foothill Boulevard Rancho Cucamonga, CA  91730 909-987-0909 [http://www.wlc-architects.com/](http://www.wlc-architects.com/)