Dietz: the Greatest Lantern Invented
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Flamy Summer and Winter Evenings with the Hurricane Lantern Feuerhand Baby Special 276
Press release for the Feuerhand Baby Special 276 hurricane lantern. Flamy Summer and Winter Evenings with the Hurricane Lantern Feuerhand Baby Special 276 The Feuerhand hurricane lantern is a classic. For 125 years now, it brings reliable, safe, warm light into the dark. With its easy handling and being available in various colours, the lantern is perfect for convivial times. The hurricane lantern Feuerhand Baby Special 276 is still manufactured in Germany and, thus, proudly carries the quality grade „Made in Germany “. For decades, the Feuerhand hurricane lantern has been used as light in traffic, on construction sites or on the open sea and still reliably does its job. Nowadays, it sees a revival as convivial light source. The Feuerhand hurricane lantern is a piece of German industry history enlightening garden and terrace. Feuerhand brings its hurricane lantern in a wide range of modern colours on the market and the colourful lanterns provide a cosy atmosphere outdoors. The combination of various colours has its special charm and the use of several lanterns at a time provides for a light decoration that unites tradition and modernity. The Feuerhand Baby Special 276 is made of zinc galvanized steel which makes it especially resistant to corrosion. The colourful versions are additionally powder- coated. The heat-resistant and break-proof Schott Suprax glass of the Feuerhand hurricane lantern protects the flame from wind and weather, making the Feuerhand Baby Special 276 the perfect outdoor companion. Thanks to the proven design of the burner, the kerosene consumption is very low and one filling lasts up to 20 hours. -
Optical Measurements of Atmospheric Aerosols: Aeolian Dust, Secondary Organic Aerosols, and Laser-Induced Incandescence of Soot
Optical Measurements of Atmospheric Aerosols: Aeolian Dust, Secondary Organic Aerosols, and Laser-Induced Incandescence of Soot by Lulu Ma, B. S. A Dissertation In Chemistry Submitted to the Graduate Faculty of Texas Tech University in Partial Fulfillment of the Requirements for the Degree of Doctor of philosophy Approved Jonathan E. Thompson Chair of Committee Dimitri Pappas Carol L. Korzeniewski Dominick Casadonte Interim Dean of the Graduate School August, 2013 Copyright 2013, Lulu Ma Texas Tech University, Lulu Ma, August 2013 ACKNOWLEDGMENTS I would like to thank my advisor, Dr. Thompson for his guidance and encouragement throughout the past 4 years in Texas Tech University. His profound knowledge, diligence and patience encouraged me and has setup a great example for me in the future. I also thank to Dr. Pappas and Dr. Korzeniewski for their help and for taking time as my committee members. I also would like to thank Dr. Ted Zobeck for his help on soil dust measurements and soil sample collection and also Dr. P. Buseck and his lab for TEM analysis. My group members: Hao Tang, Fang Qian, Kathy Dial, Haley Redmond, Yiyi Wei, Tingting Cao, and Qing Zhang, also helped me a lot in both daily life, and research. At last, I would like to thank my parents and friends for their love and continuous encouragement and support. ii Texas Tech University, Lulu Ma, August 2013 TABLE OF CONTENTS ACKNOWLEDGMENTS……………………………………………………………….ii ABSTRACT ……………………………………………………………………………..vi LIST OF TABLES …………………………………………………………………….viii LIST OF FIGURES……………………………………………………..………………ix LIST OF ABBREVIATIONS ………………………………………….………………xi I. INTRODUCTION ......................................................................................................... 1 1.1 Introduction to Atmospheric Aerosols. ................................................................... 1 1.1.1 Natural Sources ............................................................................................. -
Commentary Kerosene-Based Lighting: an Overlooked Source of Exposure to Household Air Pollution?
Feature: Air quality challenges in low-income settlements Commentary Kerosene-based lighting: an overlooked source of exposure to household air pollution? Ariadna Curto 1,2,3, Cathryn Tonne 1,2,3 1Barcelona Institute for Global Health (ISGlobal), Barcelona, Spain 2Universitat Pompeu Fabra (UPF), Barcelona, Spain 3CIBER Epidemiología y Salud Pública (CIBERESP), Barcelona, Spain https://doi.org/10.17159/caj/2020/30/1.8420 Access to affordable, reliable, modern and sustainable energy is prolonged periods, resulting in high levels of inhaled pollutants one of the seventeen Sustainable Development Goals (SDG) set (i.e. more mass inhaled per mass emitted). An experimental by the United Nations for 2030. However, estimates indicate that study in Kenya estimated that night kiosk vendors can inhale progress towards that goal is not on track: 650 million people 1560 µg of fine particles per day emitted by kerosene lamps worldwide are estimated to remain without access to electricity alone (Apple et al., 2010). Relatively few studies have attempted in 2030 (IEA, IRENA, UNSD, WB, WHO, 2019). Nine out of ten of to quantify the contribution of kerosene-based lighting to these people will live in Sub-Saharan Africa (SSA), mostly in rural particle exposure in populations in SSA. We previously reported communities, which face barriers in terms of affordability and that kerosene-based lighting was the strongest determinant supply. of 24-h average and peak personal exposure to black carbon among women living in a semi-rural area of Mozambique (Curto Without access to affordable and reliable clean energy to et al., 2019). Women who used kerosene as the primary source meet daily cooking, lighting, and heating needs, individuals of lighting had 81% and 93% higher average and peak personal rely on inefficient fuels and technologies that give rise to black carbon exposure, respectively, than those using electricity. -
Rushlight Index 1980-2006
Rushlight Cumulative Index, 1980 – 2006 Vol. 46 – 72 (Pages 2305 – 3951) Part 1: Subject Index Page 2 Part 2: Author Index Page 21 Part 3: Illustration Index Page 25 Notes: The following conventions are used in this index: a slash (/) after the page number indicates the item is an illustration with little or no text. MA before an entry indicates a notice of a magazine article; BR indicates a book review. Please note that if issues were mispaginated, the corrected page numbers are used in this index. The following chart lists the range of pages in each volume of the Rushlight covered by this index. Volume Range of Pages Volume Range of Pages 46 (1980) 2305-2355 60 (1994) 3139-3202 47 (1981) 2356-2406a 61 (1995) 3203-3261 48 (1982) 2406b-2465 62 (1996) 3262-3312 49 (1983) 2465a-2524 63 (1997) 3313-3386 50 (1984) 2524a-2592 64 (1998) 3387-3434 51 (1985) 2593-2679 65 (1999) 3435-3512 52 (1986) 2680-2752 66 (2000) 3513-3569 53 (1987) 2753-2803 67 (2001) 3570-3620 54 (1988) 2804-2851 68 (2002) 3621-3687 55 (1989) 2852-2909 69 (2003) 3688-3745 56 (1990) 2910-2974 70 (2004) 3746-3815 57 (1991) 2974a-3032 71 (2005) 3816-3893 58 (1992) 3033-3083 72 (2006) 3894-3951 59 (1993) 3084-3138 1 Rushlight Subject Index Subject Page Andrews' burning fluid vapor lamps 3400-05 Abraham Gesner: Father of Kerosene 2543-47 Andrews patent vapor burner 3359/ Accessories for decorating lamps 2924 Andrews safety lamp, award refused 3774 Acetylene bicycle lamps, sandwich style 3071-79 Andrews, Solomon, 1831 gas generator 3401 Acetylene bicycle lamps, Solar 2993-3004 -
Technology Meets Art: the Wild & Wessel Lamp Factory in Berlin And
António Cota Fevereiro Technology Meets Art: The Wild & Wessel Lamp Factory in Berlin and the Wedgwood Entrepreneurial Model Nineteenth-Century Art Worldwide 19, no. 2 (Autumn 2020) Citation: António Cota Fevereiro, “Technology Meets Art: The Wild & Wessel Lamp Factory in Berlin and the Wedgwood Entrepreneurial Model,” Nineteenth-Century Art Worldwide 19, no. 2 (Autumn 2020), https://doi.org/10.29411/ncaw.2020.19.2.2. Published by: Association of Historians of Nineteenth-Century Art Notes: This PDF is provided for reference purposes only and may not contain all the functionality or features of the original, online publication. License: This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License Creative Commons License. Accessed: October 30 2020 Fevereiro: The Wild & Wessel Lamp Factory in Berlin and the Wedgwood Entrepreneurial Model Nineteenth-Century Art Worldwide 19, no. 2 (Autumn 2020) Technology Meets Art: The Wild & Wessel Lamp Factory in Berlin and the Wedgwood Entrepreneurial Model by António Cota Fevereiro Few domestic conveniences in the long nineteenth century experienced such rapid and constant transformation as lights. By the end of the eighteenth century, candles and traditional oil lamps—which had been in use since antiquity—began to be superseded by a new class of oil-burning lamps that, thanks to a series of improvements, provided considerably more light than any previous form of indoor lighting. Plant oils (Europe) or whale oil (United States) fueled these lamps until, by the middle of the nineteenth century, they were gradually replaced by a petroleum derivative called kerosene. Though kerosene lamps remained popular until well into the twentieth century (and in some places until today), by the late nineteenth century they began to be supplanted by gas and electrical lights. -
Review of the Development of Thermophotovoltaics
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 04 | Apr 2019 www.irjet.net p-ISSN: 2395-0072 REVIEW OF THE DEVELOPMENT OF THERMOPHOTOVOLTAICS Surya Narrayanan Muthukumar1, Krishnar Raja2, Sagar Mahadik3, Ashwini Thokal4 1,2,3UG Student, Department of Chemical Engineering, Bharati Vidyapeeth College of Engineering, Kharghar, Navi Mumbai, Maharashtra India 4Assistant Professor, Department of Chemical Engineering, Bharati Vidyapeeth College of Engineering, Kharghar, Navi Mumbai, Maharashtra India ---------------------------------------------------------------------------***--------------------------------------------------------------------------- Abstract:- Thermophotovoltaic (TPV) systems have 2. PRINCIPLE slowly started gaining traction in the global sustainable energy generation realm. It was earlier believed to be a To understand the working principle of TPVs, let us break flawed method whose energy conversion efficiency was not down the term into three parts: Thermo (meaning Heat), high enough for commercial use. However, in recent times, Photo (meaning Light) and Voltaic (meaning Electricity research has picked up, addressing the need of increasing produced by chemical action). Thus, a Thermophotovoltaic the energy conversion efficiency while making it system uses light to heat up a thermal emitter, which in economically viable for commercial applications. This paper turn emits radiation (Infrared) on a photovoltaic (PV) will throw light on the various advancements in the field of diode to produce electricity. Conventional photovoltaics TPV systems and investigate the potential avenues where exploit only the visible band of solar rays for electricity TPVs may be used in the future. We will also be looking at generation. The visible band contains less than half the the history of development of TPVs so that we may be aware total radiation of solar energy. -
Photonic Lantern Illumination Source
PLIS (Photonic Lantern Illumination Source): an efficient light source for light sheet microscopy Jordi Andilla1, Rodrigo Becerra1,2, Gustavo Castro1, Pablo Loza-Alvarez1 1ICFO, The Institute of Photonic Sciences Mediterranean Technology Park, Av. Carl Friedrich Gauss, num. 3 08860 Castelldefels (Barcelona), Spain 2INAOE, Instituto Nacional de Astrofísica, Optica y Electrónica Luis Enrique Erro No. 1, Puebla, 72840, México E-mail: [email protected], [email protected] KEY WORDS: Light sheet fluorescence microscopy, Scattering Imaging, Photonic Lantern. 1. MOTIVATION Fluorescence Microscopy has been crucial in the modern understanding of biological molecular processes. More specifically, techniques like laser scanning confocal microscopy or light sheet microscopy [1] provided high resolution up to the diffraction limit. These last techniques have been possible thanks to the good emitting properties of lasers. However, for many high-resolution microscopy applications some of the characteristics of lasers are not needed or even produce undesired effects. The narrow wavelength bandwidth is not needed in the fluorescence microscopy due to the wide spectral excitation band of the fluorophores. In fact, LED sources and super-continuum lasers result in a more gentle excitation of the fluorescence and therefore in the production of high S/N images. Furthermore, in certain techniques, based on elastic scattering imaging, TIRF or light-sheet microscopy, the temporal coherence of the lasers is not only not required but also it produces undesired interference patterns or structures that affect the image quality. On the other hand, for all those imaging techniques, spatial coherence is a strong requirement to obtain the diffraction-limited illumination necessary for obtaining high-resolution images. -
Lamp Basics Compiled.Pdf
Lamp Basics Lost-in-Time Museum Lamp Fuel One of the earliest types of lamp fuel was animal tallow, usually rendered from beef or mutton fat. Normally solid at room temperatures, it had to be heated to stay liquid. Lamp designs began to emerge in the late 1700’s using lighter fluids, which could travel vertically up a wick and produce a brighter, more efficient light. Whale oil, already used in candle making, was found to be an excellent oil for this new type of lamp. As the market grew, prices for whale oil soared. Burning fluid and camphene, two substitutes for whale oil, were used as early as the 1830’s, but were dangerous due to their flammability. Their use became obsolete as kerosene became more affordable. Kerosene, first produced in 1846 by distilling cannel coal, was commonly referred to as ‘coal oil’. The word "Kerosene", a registered trademark in 1854, eventually became a generic name used by all refiners. While safer and cleaner than burning fluids and camphene, it was expensive and not affordable to the everyday consumer. Kerosene distilled from petroleum revolutionized the lamp fuel market. As production methods became more efficient in the 1860’s, this new type of kerosene, which produced a brighter and cleaner light, gradually became the fuel source used by the general populace. An improved distribution network for natural gas and electricity, along with the technological advancements they made possible, led to the end of kerosene as a primary fuel source. Kerosene is now mainly used for residential heating and as an additive for insecticides and aviation fuel. -
Basic Principles and Techniques of Lighting
Lighting 102 Basic Principles and Techniques of Lighting by John J. Rankin VINCENTLIGHTING.COM 1 /" -Ê"Ê-/ Ê/ The following criteria should be used to determine if stage lighting is necessary and effective. £°Ê 6- /9 Visibility is a very important function of stage lighting. The audience should be able to see exactly what you want them to see, or not see those things that should remain hidden. Therefore, we might rename this function as “selective visibility.” An example of selective visibility can be found in the play, Wait Until Dark by Frederick Knott. A blind woman is terrorized by a murderer hiding in her apartment. To even her odds against him, she smashes all of the light bulbs thus plunging him - and the audience - into darkness. The action is revealed verbally and occasionally visually with flashlights, matches, and a very surprising source of light at the climax of the play. Ó°Ê , 6 /" Ê"Ê", Similar to selective visibility, revealing the form of the actor, dancer, or speaker will make them stand out from their background. Using techniques described later in this article, you will be able to make the subject appear natural and be the focus of attention for the viewers. For example, when lighting a ballet it is important for the stage lighting to reveal the form of the dancers. The audience wishes to see the dancers move through the space and stand apart from the background. Lighting ballet has been described as “lighting fish in an aquarium.” Light is the same as water in this metaphor. -
GE Lighting Lamps & Ballasts Catalog
gelighting.com Lamps Introduction Incandescent GE Miniature and Sealed Beam Product Abbreviations Ordering Information The abbreviations used in this catalog include: GE Miniature and Sealed Beam Lamps are designed for those A Amperes C.P. Candlepower applications requiring specific bulb size, base, and oltage.v These ANSI American National Cand. Candelabra lamps are operated on vehicles (cars, trucks, boats, aircraft, Standards Institute PAR P arabolic Aluminized tractors) or in special applications utilizing low voltage sources. Bay. Bayonet Reflector Halogen Most lamps are designated by common ANSI (American National D.C. Double Contact Pf. Prefocus Standards Institute) lamp numbers and lamps in this section are ECE European Common SAE Society of Automotive arranged in numerical order. To assist you in identifying lamps, Market (European Motor Engineers (US Motor drawings (not to scale) are provided, along with descriptions of bulb Vehicle Standards) Vehicle Standards) and base sizes. Flg. Flanged Sc. Screw Specific market segments covered in this section are products used in: HID High Intensity Discharge S.C. Single Contact Aircraft Emergency Building Lighting Marine LCL Light Center Length Spec. Special IntensityHigh Automotive Flashlight/Hand Lanterns Medical/Instruments Discharge Agriculture Garden/Outdoor Telephone Min. Miniature Tel. Telephone CIM/Tractor Indicator Toys/Entertainment MOL Maximum Overall Length Term. Terminals MSCP Mean Spherical V Volts For additional specifications refer to the Automotive Lamp Catalog Candlepower obtained through your GE Sales Office. Automotive Selection Guide W Watts also available. Nom. Nominal C.I.M. Construction & Industrial Finding and Ordering a Lamp Machinery Most Miniature Lamps have a number on the base or bulb. Generally Fluorescent it will match the lamp number in this catalog, which is sorted in GE Miniature Lamp Prefixes numeric order (prefixes last). -
The Magic Lantern Gazette Volume 24, Number 4 Winter 2012
ISSN 1059-1249 The Magic Lantern Gazette Volume 24, Number 4 Winter 2012 The Magic Lantern Society of the United States and Canada www.magiclanternsociety.org The Editor’s Page 2 Winter Dissolving Views What a queer, pretty picture it is that greets me, as I turn my back to the rushing flakes, and so get my eyes open to look at it. Be- yond a wide swale, that yesterday was gold and green but now is glistening wintry white, rises a small eminence, where a dissolving view of trees and buildings is momentarily formed, then hidden, then brought out again, mirage-like, in the most curi- ous and dreamlike unreality, yet always with singular beauty. Gray is the only color, a soft, purplish, silvery gray; and the silhou- ette is the only style of drawing. By their outlines I guess that the wavering slender spike amid the glistening haze is the church steeple—that squarish blur the belfry of the court-house—the next irregular smudge a certain collection of house-roofs; but all seem as foreign and unsubstantial as shadows, so quaintly are they now clouded, now lightly revealed by the swirling, satiny snowflakes that fill the air with particle luminous in themselves yet obscuring the landscape. Ernest Ingersoll, “In March Weather,” Outlook, March 4, 1899 In our main feature article, John Davidson has contributed a Please check out the Magic Lantern Research Group at rather technical piece on the use of antique and modern electric https://www.zotero.org/groups/magic_lantern_research_group . lights for magic lantern projection. He has included not only This site is accessible to the public and best viewed using descriptions of the various sorts of lamps, but also experimen- Mozilla Firefox as the web browser. -
Tucson Lighting, 1882-1912, with Information on Lighting the Historic Interior
Tucson lighting, 1882-1912, with information on lighting the historic interior Item Type text; Thesis-Reproduction (electronic) Authors Orlando, Catherine Maier Publisher The University of Arizona. Rights Copyright © is held by the author. Digital access to this material is made possible by the University Libraries, University of Arizona. Further transmission, reproduction or presentation (such as public display or performance) of protected items is prohibited except with permission of the author. Download date 28/09/2021 00:48:28 Link to Item http://hdl.handle.net/10150/557708 TUCSON LIGHTING, 1882-1912, WITH INFORMATION ON LIGHTING THE HISTORIC INTERIOR by Catherine Maier Orlando A Thesis Submitted to the Faculty of the SCHOOL OF HOME ECONOMICS In Partial Fulfillment of the Requirements For the Degree of MASTER OF SCIENCE In the Graduate College THE UNIVERSITY OF ARIZONA 19 8 1 STATEMENT BY AUTHOR This thesis has been submitted in partial fulfill ment of requirements for an advanced degree at The Univer sity of Arizona and is deposited in the University Library to be made available to borrowers under rules of the Library. Brief quotations from this thesis are allowable without special permission, provided that accurate acknowl edgment of source is made. Requests for permission for extended quotation from or reproduction of this manuscript in whole or in part may be granted by the head of the major department or the Dean of the Graduate College when in his judgment the proposed use of the material is in the inter ests of scholarship. In all other instances, however, permission must be obtained from the author.