Saving energy and improving comfort at boeing

被引:0
|
作者
Tom, Steven [1 ]
机构
[1] Automated Logic Corporation, United States
关键词
Greenhouse gases - Gas emissions - Carbon dioxide;
D O I
暂无
中图分类号
学科分类号
摘要
When the Boeing Company purchased a 20-year-old building to expand its operations in the Houston area, it found itself in a situation that is all too familiar to many organizations-aging mechanical equipment with outdated controls, rising energy bills, comfort issues, and no magic pot of money to fix everything that needed to be fixed. By carefully focusing their efforts on programs with the greatest payback, they were able to cut their energy usage by approximately 24 percent, over 2 million kWh in the first year of their energy initiative. By continuing to fine tune their energy program, they cut energy use by an additional 9 percent in their second year. Equally important, they improved the indoor working environment and comfort while making these changes and saved the equivalent of 2,037 metric tons of carbon dioxide in greenhouse gas emissions over this same period. This facility received an Energy Star certification and has been submitted for LEED EB certification. This article will examine some of the ways in which Boeing achieved these remarkable results. It will also focus on the reporting tools used to measure both energy use and the indoor working environment to insure the energy savings were not achieved at the expense of lost comfort and productivity.
引用
收藏
页码:69 / 79
相关论文
共 50 条
  • [41] Application of predictive control algorithms for thermal comfort and energy saving in the classroom
    Nowak, Mariusz
    Urbaniak, Andrzej
    PROCEEDINGS OF THE 2016 17TH INTERNATIONAL CARPATHIAN CONTROL CONFERENCE (ICCC), 2016, : 527 - 532
  • [42] PASSENGERS NOTE COMFORT GAINS IN NEW BOEING TRANSPORT
    不详
    AVIATION WEEK & SPACE TECHNOLOGY, 1985, 122 (22): : 95 - 95
  • [43] Reducing outdoor air temperature, improving thermal comfort, and saving buildings' cooling energy demand in arid cities - Cool paving utilization
    Aboelata, Amir
    SUSTAINABLE CITIES AND SOCIETY, 2021, 68
  • [44] SAVING ENERGY THROUGH IMPROVING CONVECTION IN A MUFFLE FURNACE
    Minea, Alina Adriana
    Dima, Adrian
    THERMAL SCIENCE, 2008, 12 (03): : 121 - 125
  • [45] Mobile Edge Decoding for Saving Energy and Improving Experience
    Zhao, Quanxin
    You, Tong
    Ma, Xiaohui
    Mao, Yuming
    Leng, Supeng
    Yang, Ning
    Zhao, Zhiwei
    2017 IEEE INTERNATIONAL CONFERENCE ON INTERNET OF THINGS (ITHINGS) AND IEEE GREEN COMPUTING AND COMMUNICATIONS (GREENCOM) AND IEEE CYBER, PHYSICAL AND SOCIAL COMPUTING (CPSCOM) AND IEEE SMART DATA (SMARTDATA), 2017, : 475 - 482
  • [46] Improving Energy Saving Techniques by Ambient Intelligence Scheduling
    Cristani, Matteo
    Karafili, Erisa
    Tomazzoli, Claudio
    2015 IEEE 29TH INTERNATIONAL CONFERENCE ON ADVANCED INFORMATION NETWORKING AND APPLICATIONS (IEEE AINA 2015), 2015, : 324 - 331
  • [47] The energy saving and indoor comfort improvements with latent thermal energy storage in building retrofits in Canada
    Berardi, Umberto
    Manca, Mauro
    8TH INTERNATIONAL CONFERENCE ON SUSTAINABILITY IN ENERGY AND BUILDINGS, SEB-16, 2017, 111 : 472 - 481
  • [48] Investigation of the Energy Saving Potential in Existing School Buildings in Greece. The role of Shading and Daylight Strategies in Visual Comfort and Energy Saving
    Tsikra, P.
    Andreou, E.
    SUSTAINABLE SYNERGIES FROM BUILDINGS TO THE URBAN SCALE, 2017, 38 : 204 - 211
  • [49] Advanced thermal regulating materials and systems for energy saving and thermal comfort in buildings
    Chai, Jiale
    Fan, Jintu
    MATERIALS TODAY ENERGY, 2022, 24
  • [50] Small fan assisted air conditioner for thermal comfort and energy saving in Thailand
    Atthajariyakul, Surat
    Lertsatittanakorn, Charoenporn
    ENERGY CONVERSION AND MANAGEMENT, 2008, 49 (10) : 2499 - 2504