Modeling Daylight Illuminances in Building Environmental Performance Analysis

References

• HavesP. and LittlefairP.J. 1988. Daylight in dynamic thermal modeling programs: A case study. Bldg Serv Eng Res & Tech 9(no. 4):183–188.
   Google Scholar
• LittlefairP.J. 1989. Predicting hourly internal daylight illuminances for dynamic building energy modelling. BEPAC Technical Note (no. 1): Garston, UK: BRE
   Google Scholar
• CrispV.H.C.; LittlefairP.J.; CooperI.; and McKennanG. 1988. Daylighting as a passive solar energy option: An assessment of its potential in non-domestic buildings. BRE Report BR 129, Garston, UK: BRE
   Google Scholar
• LittlefairP.J. 1990. Innovative daylighting: Review of systems and evaluation methods. Lighting Res & Tech 22(no. 1):1–18.
   Google Scholar
• LittlefairP.J. 1984. Daylight availability for lighting controls. Proc CIBSE National Lighting Conference Cambridge, UK: CIBSE
   Google Scholar
• LittlefairP.J. 1990. Predicting annual lighting use in daylit buildings. Building & Environment 25(no. 1):43–54.
   Google Scholar
• LittlefairP.J. 1984. A new method for predicting energy savings from on/off photoelectric controls. BRE information paper IP. 14–84 Garston, UK: BRE
   Google Scholar
• IrvingS.J. 1988. The CIBSE example weather year. Proc Symp Weather Data and Its Applications. London, UK: CIBSE.
   Google Scholar
• Chartered Institute of Building Services. 1983. The CIBS example weather year—report of the CIBS example weather year task group. Bldg Serv Eng Res & Tech. 4: 119–124.
   Google Scholar
• LittlefairP.J. 1985. The luminous efficacy of daylight: A review. Light Res & Tech 17(no 4):162–182.
   Google Scholar
• LittlefairP.J. 1988. Measurements of the luminous efficacy of daylight. Light Res & Tech 20(no. 4):177–188.
   Google Scholar
• BaxterA.J. 1979. Windows and energy, Energy conservation in the built environment. Proceedings of the CIB Symposium. Copenhagen. CIB.
   Google Scholar
• HuntD.R.G. 1979. The use of artificial lighting in relation to daylight levels and occupancy. Building & Environment 14(no. 1):21–33.
   Google Scholar
• HuntD.R.G. 1980. Predicting lighting use—a method based upon observed patterns of behavior. Light Res & Tech. 12(no. 1):7–14.
   Google Scholar
• BensassonS. and BurgessK. 1978. Computer programs for daylighting in buildings. Cambridge, UK: Design Office Consortium.
   Google Scholar
• PlantC.G.H. and ArcherD.W. 1973. A computer model for lighting prediction. Bldg Sci. 8: 351–361.
   Google Scholar
• DiLauraD.L. and HauserG.A. 1978. On calculating the effects of daylighting on interior spaces. J of the IES. 8(no. 1):12–14.
   Google Scholar
• TregenzaP.R. 1980. The daylight factor and actual illuminance ratios. Light Res & Tech. 12(no. 2):64–68.
   Google Scholar
• GilletteG. 1983. A daylighting model for building energy simulation. Bldg Sci Series 152 Washington, DC: NBS.
   Google Scholar
• WinkelmannF. and SelkowitzS. 1985. Daylighting simulation in DOE-2: Theory, validation and applications. Proc Bldg Energy Simulation Conference. Washington, DC: Department of Energy.
   Google Scholar
• HuntD.R.G. 1979. Improved daylight data for predicting energy savings from photoelectric controls. Light Res & Tech. 11(no. 1):9–23.
   Google Scholar
• PhillipsR.O. 1982. Computer simulation of the integration of daylight and electric light. Daylighting Proceedings and energy conservation symposium proceedings. Univ New South Wales. Sydney, Australia.
   Google Scholar
• LittlefairP.J. 1982. Designing for daylight availability using the BRE Average Sky. Proceedings Chartered Institute of Building Services Engineers National Lighting Conference. Cambridge, UK: CIBSE.
   Google Scholar
• LindsayC.R.T. 1990. Recording Venetian blind positions. Proceedings Chartered Institute of Building Services Engineers National Lighting Conference. Cambridge, UK: CIBSE.
   Google Scholar
• InoueT. and MatsuoY. 1987. Study on the use of window shading devices. Trans Arch Inst Japan, no. 387:10–18.
   Google Scholar
• TregenzaP.R. and WatersI.M. 1983. Daylight coefficients. Light Res & Tech 15: 65–71.
   Google Scholar
• MerzB. 1983. Delight in daylight. Arch Sci Rev 26: 124–127.
   Google Scholar
• PerraudeauM. and ChauvelP. 1986. One year's measurements of luminous climate in Nantes. Proceedings Int'l Daylighting Conference.
   Google Scholar
• PerraudeauM. 1988. Luminous climate at Nantes: Results of 15 months of measurements. Nantes: CSTB.
   Google Scholar
• PainterH.E. 1981. The performance of a Campbell-Stokes sunshine recorder compared with a simultaneous record of the normal incidence irradiance. Meteorol Mag. 110: 102–109.
   Web of Science ®Google Scholar
• BensonR.B.; ParisM.V.; SherryJ.E.; and JustusC.G. 1984. Estimation of daily and monthly direct, diffuse and global solar radiation from sunshine duration measurements. Solar Energy. 32: 523–536.
   Web of Science ®Google Scholar
• NakamuraH.; OkiM.; HayashiY.; and IwataT. 1986. The Mean Sky composed depending on the absolute luminance values of the sky elements and its application to the daylighting prediction. Proceedings Int'l Daylighting Conference.
   Google Scholar
• MatsuraK. 1988. Luminance distributions of various reference skies. CIE Technical Report TC 3–09.
   Google Scholar
• NakamuraH. and OkiM. 1983. Composition of mean sky and its application to daylight prediction. Amsterdam; The Netherlands: CIE.
   Google Scholar
• IESNA. Recommended practice for the calculation of daylight availability. 1984. J of the IES. 13: 381–392.
   Google Scholar
• CIE. 1973. Standardization of luminance distribution on clear skies. Paris, France: CIE.
   Google Scholar
• CIE Committee E3.2. 1955. Natural daylight. Proceedings CIE. Zurich, Switzerland.
   Google Scholar
• KrochmannJ. and SeidlM. 1974. Quantitative data on daylight for illuminating engineering. Light Res & Tech 6: 165–171.
   Google Scholar
• PierpointW. 1983. A simple sky model for daylighting calculations. Proceedings Int'l Daylighting Conf.
   Google Scholar
• NakamuraH.; OkiM.; and IwataT. 1987. Mathematical description of the intermediate sky. Proceedings CIE. Venice, Italy: CIE.
   Google Scholar
• NakamuraH. and OkiM. 1987. Investigation on the relation between the relative frequencies of occurrence of the three skies and the relative sunshine duration. Venice, Italy, Proceedings CIE.
   Google Scholar
• PerezR.; IneichenP.; SealsR.; MichalskyJ.; and StewartR. 1990. Modeling daylight availablility and irradiance components from direct and global irradiance. Solar Energy 44(no. 5):271–289.
   Google Scholar
• Guide to recommended practice of daylight measurement: General class stations. 1987. Supplement to CIE Journal 6(no. 2).
   Google Scholar
• RubinA.I.; CollinsB.L.; and TibbottR.L. 1978. Window blinds as a potential energy saver—a case study. Bldg Sci Series No. 112. Washington, DC: NBS.
   Google Scholar
• ReaM.S. 1984. Window blind occlusion: A pilot study Bldg & Environment 19(no. 2):133–137.
   Google Scholar