THE LIGHT BULB REVOLUTION EPA Predicts Widespread Consumer Adoption of LED Lighting by 2020 If Utility Programs Persist
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1 LIGHT PHYSICS Light and Lighting Francesco Anselmo Light Intro Light Animates and Reveals Architecture
1 LIGHT PHYSICS Light and Lighting Francesco Anselmo Light intro Light animates and reveals architecture. Architecture cannot fully exist without light, since without light there would be nothing to see. Yet in architectural design light is usually either expected from nature or developed as an add-on attachment very late in the design process. The course explores the symbiotic relationship between architecture and light. As much as light can reveal architecture, architecture can animate light, making it bounce, scatter, refract, altering its spectrum and colour perception, absorbing it or reflecting it, modulating its path and strength in both space and time. It aims at developing a sensibility and intuition to the qualities of light, whilst giving the physical and computational tools to explore and validate design ideas. 4 7 1 2 5 3 6 1 LIGHT PHYSICS 4 LIGHT ELECTRIC 7 LIGHT CONNECTED 2 LIGHT BIOLOGY 5 LIGHT ARCHITECTURE 3 LIGHT NATURAL 6 LIGHT VIRTUAL Reading list Books Free online resources Bachelard, Gaston. The poetics of space, Beacon Press 1992 • http://hyperphysics.phy-astr.gsu.edu/hbase/ligcon.html Banham, Reyner. The architecture of the well-tempered Environment, Chicago University Press 1984 • http://thedaylightsite.com/ Bazerman, Charles. The languages of Edison’s light, MIT Press 2002 Berger, John. Ways of seeing, Pearson Education, Limited, 2002 • http://issuu.com/lightonline/docs/handbook-of-lighting-design Berger, John. About looking, Bloomsbury Publishing 2009 • http://www.radiance-online.org/ Bluhm, Andreas. Light! The industrial age 1750-1900, Carnegie Museum of Art 2000 Boyce, Peter R. Human Factors in Lighting, Taylor & Francis 2003 Calvino, Italo. -
A Guide for Lighting the Stage
A Guide for Lighting the Stage visual environment technologies | etcconnect.com ETC® and ColorSource are either registered trademarks or trademarks of Electronic Theatre Controls, Inc. in the United States and other countries. All other trademarks, both marked and not marked, are the property of their respective owners. This content may be used, copied and freely distributed for educational purposes without written permission from ETC. Introduction The aim of this guide is to help teachers better understand and explain the basic elements of stage lighting. This resource is intended to supplement existing teaching materials, providing additional information and relevant product examples to add colour to lessons and presentations. The content can be applied to a variety of venues, including school halls, drama studios, college and university venues, dance venues, village halls, arts centres, concerts and student television studios. The following chapters cover basic illumination techniques using the ColorSource family of products from ETC and provide a pathway towards more artistic lighting designs. The guide is supported by an optional set of posters, available from ETC (send an email to [email protected] to request a poster set). Founded in 1975, ETC is a global leader in the manufacture of lighting and rigging technology for entertainment and architectural applications. ETC products are found in small and large venues worldwide. All ETC products are made to the same high standards, which is why they are used in so many professional and amateur venues. The ETC ColorSource family of equipment delivers LED lighting on a budget by offering high quality lighting, data distribution and power control in a plug- and-play format. -
Sustainable Home Guidelines
Contents Light for comfort and health 3 Glazing for natural daylight 4 Energy efficient lighting 5 Healthy lighting 6 Lights and lamps 7 A lighting plan for your home 8 Further information 10 This chapter is part of the Waitakere City Council’s Sustainable Home Guidelines. The complete set can be obtained through most libraries or from the Waitakere City Council, Private Bag 93109, Henderson, Waitakere City 0650, New Zealand, phone (09) 839 0400, email: [email protected]. The guidelines are also available on the council’s web site: http://www.waitakere.govt.nz WAITAKERE CITY COUNCIL’S SUSTAINABLE HOME GUIDELINES / LIGHT & LIGHTING / PAGE 2 Light for comfort and health Why do we need light? Besides being essential for vision, light affects human performance, alertness and mood. It influences body rhythms such as sleep patterns, ovulation and hormone secretion. The absorption of sunlight by our skin is also a necessary part of our body’s chemistry. Without sunlight there would be no life. Insufficient sunlight may cause depression and lethargy. How much light do we need? In order to see properly without eye strain we need a minimum light quantity or intensity. The light output onto a surface is measured in lux. lux = the number of lumens per square metre of surface: In offices a minimum of 500 lux In schools a minimum of 300 lux In homes a minimum of 200 lux. What kind of light do we want? The quality of the light is important too: the more natural light available, the better. Natural light offers us a balanced light spectrum with a full range of different wavelengths. -
LED Lighting Standards in ENERGY STAR Programs
LED Lig hting Standards in ENERGY STAR® Programs Jianzhong Jiao, Ph.D. OSRAM Opto Semiconductors Inc. Outline Introduction LED lighting standards referred to or referenced in ENERGY STAR® Specs –ANSI – IESNA – UL –NEMA Implementations of LED lighting standards in ENERGY STAR® Programs – Testing for qualifications – Considerations of new standards EPA Energy Star Products Partner Meeting | Nov. 9, 2011 | 2 Introduction LED Lighting Standardization Bodies in USA Professional associations – SAE (Society of Automotive Engineers) – IESNA (Illumination Engineering Society North America) – IEEE-SA (Institute of Electrical and Electronics Engineers Standards Association) Standard organizations – UL (Underwriter Laboratories) – ANSI (American National Standard Institute) Trade associations – NEMA (National Electrical Manufacturers Association) – JEDEC (Joint Electron Device Engineering Council) – SEMI (Semiconductor Equipment and Materials International) EPA Energy Star Products Partner Meeting | Nov. 9, 2011 | 3 Introduction U.S. Standard Organizations ISO General Lighting ANSI CIE IEC GTB SAE IEEE IESNA NEMA UL ITE JEDEC USA SEMI EPA Energy Star Products Partner Meeting | Nov. 9, 2011 | 4 Introduction Government Regulations or Specifications for LED Lighting Federal government: DOT, EPA, DOE, … – Rule making (establish rules by federal agencies) – Enforcement – “Endorsement”, approval, labeling Federal government: DOC – National Institute of Standards and Technology (NIST): US National Metrology Institute – Promote US innovation and -
Nonresidential Lighting and Electrical Power Distribution Guide
NONRESIDENTIAL LIGHTING AND ELECTRICAL POWER DISTRIBUTION A guide to meeting or exceeding California’s 2016 Building Energy Efficiency Standards DEVELOPED BY THE CALIFORNIA LIGHTING TECHNOLOGY CENTER, UC DAVIS © 2016, Regents of the University of California, Davis campus, California Lighting Technology Center Guide Prepared by: California Lighting Technology Center (CLTC) University of California, Davis 633 Pena Drive Davis, CA 95618 cltc.ucdavis.edu Project Partners: California Energy Commission Energy Code Ace This program is funded by California utility customers under the auspices of the California Public Utilities Commission and in support of the California Energy Commission. © 2016 Pacific Gas and Electric Company, San Diego Gas and Electric, Southern California Gas Company and Southern California Edison. All rights reserved, except that this document may be used, copied, and distributed without modification. Neither PG&E, Sempra, nor SCE — nor any of their employees makes any warranty, express of implied; or assumes any legal liability or responsibility for the accuracy, completeness or usefulness of any data, information, method, product, policy or process disclosed in this document; or represents that its use will not infringe any privately-owned rights including, but not limited to patents, trademarks or copyrights. NONRESIDENTIAL LIGHTING & ELECTRICAL POWER DISTRIBUTION 1 | INTRODUCTION CONTENTS The Benefits of Efficiency ................................. 5 About this Guide ................................................7 -
Challenges of Designing Smart Lighting Manoel Dahan, Abdoul Aziz Mbacké, Oana Iova, Hervé Rivano
Challenges of Designing Smart Lighting Manoel Dahan, Abdoul Aziz Mbacké, Oana Iova, Hervé Rivano To cite this version: Manoel Dahan, Abdoul Aziz Mbacké, Oana Iova, Hervé Rivano. Challenges of Designing Smart Lighting. EWSN 2020 - International Conference on Embedded Wireless Systems and Networks, Feb 2020, Lyon, France. pp.1-6, 10.5555/3400306.3400356. hal-02431771 HAL Id: hal-02431771 https://hal.archives-ouvertes.fr/hal-02431771 Submitted on 8 Jan 2020 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Challenges of Designing Smart Lighting Manoel¨ Dahan, Abdoul Aziz Mbacke,´ Oana Iova, Herve´ Rivano Universite´ de Lyon, INSA Lyon, Inria, CITI fmanoel.dahan, adboul-aziz.mbacke, oana.iova, [email protected] Abstract at runtime. Depending on the origin of the motion (animal, Smart lighting is one of the main applications enabling the pedestrian, bike, car, etc.), of its characteristics (e.g., direc- Smart Cities of today. Existing real life deployments have tion of movement, speed), and on the weather conditions clearly shown that smart lighting drastically decreases the (e.g., clear night, presence of fog, rainy day), the luminosity energy consumption of cities. However, with the plethora of level should be set accordingly to provide better visibility. -
Download the DIA Color Chart
DEMI-PERMANENT HAIRCOLOR 2 COMPLIMENTARY LINES OF HAIRCOLOR Each with its own benefit & expertise both provide maximum creativity & freedom ADVANCED ALKALINE TECHNOLOGY GENTLE ACID TECHNOLOGY HIGH PERFORMANCE HIGH PERFORMANCE • Demi-permanent crème • Luminous demi-permanent gel-crème • Rich tones, exceptional softness • Zero lift • Covers up to 70% grey • Intense care for the hair THE PROCESS THE PROCESS • Lifts (up to 1.5 Levels with 15-vol), then deposits • Zero lift, deposit only BEFORE COLOR DURING COLOR AFTER COLOR BEFORE COLOR DURING COLOR AFTER COLOR On natural hair, the cuticle The alkaline agents slightly open DIA Richesse has the ability to lighten up On color-treated & DIA Light has an acid The cationic polymers in scales are closed. the hair fiber allowing colorants to 1.5 levels, cover up to 70% white hair sensitized hair, the cuticle pH close to the natural pH of the hair. DIA Light have a resurfacing to penetrate the cuticle. & create rich, profound tones. scales are already open. effect on the cuticle, leaving There is no lift with gentle penetration the hair with amazing shine. of colorants for long lasting color. ADVANCED ALKALINE TECHNOLOGY ADVANCED ALKALINE TECHNOLOGY HIGH PERFORMANCE • Demi-permanent crème • Rich tones, exceptional softness • Covers up to 70% grey THE PROCESS • Lifts (up to 1.5 Levels with 15-vol), then deposits BEFORE COLOR DURING COLOR AFTER COLOR On natural hair, the cuticle The alkaline agents slightly open DIA Richesse has the ability to lighten scales are closed. the hair fiber allowing colorants up to 1.5 levels, cover up to 70% white to penetrate the cuticle. -
WHITE LIGHT and COLORED LIGHT Grades K–5
WHITE LIGHT AND COLORED LIGHT grades K–5 Objective This activity offers two simple ways to demonstrate that white light is made of different colors of light mixed together. The first uses special glasses to reveal the colors that make up white light. The second involves spinning a colorful top to blend different colors into white. Together, these activities can be thought of as taking white light apart and putting it back together again. Introduction The Sun, the stars, and a light bulb are all sources of “white” light. But what is white light? What we see as white light is actually a combination of all visible colors of light mixed together. Astronomers spread starlight into a rainbow or spectrum to study the specific colors of light it contains. The colors hidden in white starlight can reveal what the star is made of and how hot it is. The tool astronomers use to spread light into a spectrum is called a spectroscope. But many things, such as glass prisms and water droplets, can also separate white light into a rainbow of colors. After it rains, there are often lots of water droplets in the air. White sunlight passing through these droplets is spread apart into its component colors, creating a rainbow. In this activity, you will view the rainbow of colors contained in white light by using a pair of “Rainbow Glasses” that separate white light into a spectrum. ! SAFETY NOTE These glasses do NOT protect your eyes from the Sun. NEVER LOOK AT THE SUN! Background Reading for Educators Light: Its Secrets Revealed, available at http://www.amnh.org/education/resources/rfl/pdf/du_x01_light.pdf Developed with the generous support of The Charles Hayden Foundation WHITE LIGHT AND COLORED LIGHT Materials Rainbow Glasses Possible white light sources: (paper glasses containing a Incandescent light bulb diffraction grating). -
Light, Color, and Atmospheric Optics
Light, Color, and Atmospheric Optics GEOL 1350: Introduction To Meteorology 1 2 • During the scattering process, no energy is gained or lost, and therefore, no temperature changes occur. • Scattering depends on the size of objects, in particular on the ratio of object’s diameter vs wavelength: 1. Rayleigh scattering (D/ < 0.03) 2. Mie scattering (0.03 ≤ D/ < 32) 3. Geometric scattering (D/ ≥ 32) 3 4 • Gas scattering: redirection of radiation by a gas molecule without a net transfer of energy of the molecules • Rayleigh scattering: absorption extinction 4 coefficient s depends on 1/ . • Molecules scatter short (blue) wavelengths preferentially over long (red) wavelengths. • The longer pathway of light through the atmosphere the more shorter wavelengths are scattered. 5 • As sunlight enters the atmosphere, the shorter visible wavelengths of violet, blue and green are scattered more by atmospheric gases than are the longer wavelengths of yellow, orange, and especially red. • The scattered waves of violet, blue, and green strike the eye from all directions. • Because our eyes are more sensitive to blue light, these waves, viewed together, produce the sensation of blue coming from all around us. 6 • Rayleigh Scattering • The selective scattering of blue light by air molecules and very small particles can make distant mountains appear blue. The blue ridge mountains in Virginia. 7 • When small particles, such as fine dust and salt, become suspended in the atmosphere, the color of the sky begins to change from blue to milky white. • These particles are large enough to scatter all wavelengths of visible light fairly evenly in all directions. -
Industrial Lighting a Primer
Industrial Lighting A Primer All through history people have sought better ways to illuminate their work. Even the cavemen needed torches to allow them to draw on the walls of their underground caverns. Fire brought both light and heat for thousands of years before crude lamps of animal fat gave way to the candle for general indoor illumination used around the world. Roman Grease Lamp An offshoot of the common candlestick became what we now call the Lacemakers Globe. This quite possibly could qualify as the world’s first industrial light source! It was observed that when a candle flame was aligned behind a rounded glass bottle filled with water, a magnifying and focusing effect was produced, in addition to simply lighting up a small area. This was high technology of the first order! No longer did the lacemaker have to pack it in when the sun went down, for soon the new Lacemaker’s Globe became fairly common in European Cottage Industry, enabling the production of lace at a greater rate than ever before. It is also not too much of a stretch to conclude that the repetitive patterns of the lacemaker could be looked upon as a forerunner to the theory of mass production, along with the pin makers who toiled away in the ‘second tier’ of the feeble light pool cast by the globe, hammering heads onto straightened bits of wire in order to make the common pin. This was mighty slim pickings by today’s standards to be sure, but just a few hundred years ago it represented a revolutionary increase in handiwork production after the sun went down, for the very first time in history. -
Smart Lighting Application for Energy Saving and User Well-Being in the Residential Environment
sustainability Review Smart Lighting Application for Energy Saving and User Well-Being in the Residential Environment Moe Soheilian * ,Géza Fischl and Myriam Aries Department of Construction Engineering and Lighting Science, School of Engineering, Jönköping University, 55511 Jönköping, Sweden; geza.fi[email protected] (G.F.); [email protected] (M.A.) * Correspondence: [email protected] Abstract: The idea of smart lighting has emerged over the years in commercial and industrial environments, with a focus on energy saving. With the advancement in technology, smart lighting can now offer opportunities in addition to energy saving to users in home environments for the provision of a comfortable atmosphere and the maintenance of user well-being. Currently, research in the smart lighting field is predominantly dedicated to energy saving in non-residential environments; meanwhile, the residential environments have not been explored. Therefore, a literature review was conducted to provide an overview of smart lighting systems’ effect on energy and well-being in the residential environment. Current research is mostly limited to designing and developing a smart lighting system in a controlled environment, with a limited evaluation of well-being and comfort. The review shows that residential smart lighting application possibilities and opportunities are not widely and thoroughly explored. Keywords: home environment; intelligent lighting; lighting control; energy saving; user comfort; Citation: Soheilian, M.; Fischl, G.; user well-being; lighting protocol Aries, M. Smart Lighting Application for Energy Saving and User Well-Being in the Residential Environment. Sustainability 2021, 13, 1. Introduction 6198. https://doi.org/10.3390/ In the future, everything may be ‘connected’ and ‘smart’ in the built environment. -
The Complete Guide to Under Cabinet Lighting
THE COMPLETE GUIDE TO UNDER CABINET LIGHTING Annie Josey & Christopher Johnson Pegasus Lighting www.pegasuslighting.com Copyright © Pegasus Lighting 2013 All Rights Reserved 2 Table of Contents 1 – The Essentials of Great Lighting 2 – Choosing Under Cabinet Lights 3 – How to Install Under Cabinet Lights 4 – Under Cabinet Lighting Maintenance 5 – Beyond the Cabinet: Lights in Uncommon Places 6 – Glossary Notes 3 1 The Essentials Of Great Lighting Today, the kitchen has to be multifunctional. It’s not only a place to prepare and eat food, but also a place to relax, a place to entertain, and a place to enjoy. It should be inviting, bright, functional, and easy to control. The right kitchen lighting will help you stay clean, organized, and safe, while letting you create the perfect atmosphere for an early morning baking frenzy, board games with the kids on a rainy afternoon, or spending a couple’s night in. Most of all, light layering (having multiple light sources for different purposes) is the most important, all-encompassing rule in kitchen lighting design. A single light source never does any space justice. You need different sources of light for different purposes. Ambient lighting, task lighting, accent lighting, safety lighting, and mood lighting are all essential parts of great kitchen design. This book will first and foremost address task lighting in the kitchen. Under cabinet lights are the most popular, attractive, and handy kind of task lighting for the kitchen. Lighting designers agree that the path to any beautiful, functional kitchen starts with excellent task lights. Kitchen task lights have one simple purpose – to help you out.