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List of Recommended Major Research Projects in Basic & Applied Sciences Including Engineering & Technology , Medicine, Pharmacy & Agriculture Etc
List of recommended Major Research Projects in Basic & Applied Sciences including Engineering & Technology , Medicine, Pharmacy & Agriculture etc (Meeting held during January 17 to January 31, 2013) 1. Smt. Veena P.H. "Mathematical study of free and forced 12,50,800/- 8,36,800/- Dept of Maths convective flows of visous and vsco- H.K.E's Smt. V.G. College for elastic fluids past a stretchng sheet with Women's heat ans mass transfer". Gulbarga 2. Dr. Poonam Kumar Sharma "A study of ontuitionistic fuzzy G- 10,05,800/- 5,41,800/- Dept of Maths Moduals". D.A.V. college Jalandhar city 3. Jatinderdeep Kaur "On L1- Convergence of trigonomatric 9,72,800/- 5,98,800/- Dept of Maths series with special coeffcients". Thapar Institute of Technology Patiala 4. D.C.Sharma "Solid waste management: A 11,40,300/- 7,28,800/- Dept of Maths mathematicalapproach". Central University of Rajasthan Malviya Nagar, Jaipur 5. Dr. S.N.Biradar "Study of problems on boundary layer 8,93,800/- 5,99,800/- Dept of Maths theory". Shri Channabasaveswar Arts, Science & Commerce College Bhalki 6. Dr. B.Sivakumar "Stochastic analysis of srver vacation 9,78,300/- 6,31,800/- Dept of Maths models in inventory systems". Madurai Kamaraj University Madurai 7. Dr. R.M.Lahurikar "Rotatory flow through porous medium 5,20,000/-. 3,70,000/- Dept of Maths and mass transfer effects". Government College of Arts and Science Kle Ark, Aurangabad 8. Dr. K.Selvakumar "Graphs from Algebraic structures". 8,67,800/- 5,43,800/- Dept of Maths Manonmaniam Sundaranar University Tirunelveli 9. -
The Image of Truth: Photographic Evidence and the Power of Analogy
Articles The Image of Truth: Photographic Evidence and the Power of Analogy Jennifer L. Mnookin* We have but Faith: We cannot know For Knowledge is of things we see. Alfred Tennyson, In Memoriam' Maxims that urge the power of images are cultural commonplaces with which we are all too familiar: "a picture's worth a thousand words," "seeing is believing," and so forth.2 The photograph, in * Doctoral Fellow, American Bar Foundation. For useful comments and suggestions, particular thanks are due to Shari Diamond, Joshua Dienstag, Bob Gordon, Evelyn Fox Keller, Jim Liebman, Bob Mnookin, Stephen Robertson, Richard Ross, Christopher Tomlins, and the participants of the Chicago Legal History Forum and the Northwestern History and Philosophy of Science Seminar Series. Thanks, too, for the many thoughtful suggestions of the editors of the Yale Journal of Law & the Humanities, especially Barton Beebe, Jacob Cogan, and Beth Hillman. For research support during the course of working on this article, I thank the American Bar Foundation. 1. ALFRED TENNYSON, In Memoriam, in TENNYSON'S POETRY 119, 120 (Robert W. Hill, Jr. ed., 1971). 2. Some research lends credence to these adages. See, e.g., Brad E. Bell & Elizabeth F. Loftus, Vivid Persuasion in the Courtroom, 49 J. PERSONALITY ASSESSMENT 659 (1985) (claiming that "vivid" testimony is more persuasive than "pallid" testimony); William C. Cos- topoulos, Persuasion in the Courtroom, 10 DuO. L. REv. 384, 406 (1972) (suggesting that more Yale Journal of Law & the Humanities, Vol. 10, Iss. 1 [1998], Art. 1 Yale Journal of Law & the Humanities [Vol. 10: 1 particular, has long been perceived to have a special power of persuasion, grounded both in the lifelike quality of its depictions and in its claim to mechanical objectivity.3 Seeing a photograph almost functions as a substitute for seeing the real thing. -
Cyanotypes Handout
Cyanotypes Background/Context Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ferric ammonium citrate and potassium ferricyanide. Equipment needed Ferric Ammonium Citrate Scales 3 containers for mixing (ideally brown glass bottles) Potassium Ferricyanide Measuring Jug Plastic Spoons Protective Equipment: Facemask, Brushes & Sponges Glass or Clear Perspex Gloves & Apron Sunlight or UV Source Water trays Heavy papers approx 300 gsm Found materials such as threads, Acetate/Tracing Paper Black pens/china graph pencils leaves, feathers, buttons etc Mixing the Chemicals Using a plastic spoon mix 25g of ferric ammonium citrate with 100ml of water. In a separate container mix 10g potassium ferricyanide with 100ml water. Mix the two solutions together with a 1:1 ratio immediately before use. Chemical solutions can be stored separately in glass brown bottles for months but ammonium ferric citrate will grow mould which will need sieving out. Coating the Papers Wear gloves when applying the solution. In a dark room or room with a low level light the solution can be applied to paper using a brush - or for even coverage use a sponge brush. Keep the coated papers in the dark and ideally leave to dry flat. Dry coated papers can be kept in a light sealed black bag until exposed in sunlight or using a UV light box. Exposing your Image Using sunlight: Place your objects or acetate image on top of the coated side of the paper and place a piece of glass or clear perspex on top. -
Cyanotype Detailed Instructions
Cyanotype Detailed Instructions Cyanotype Formula, Mixing and Exposing Instructions 1. Dissolve 40 g (approximately 2 tablespoons) Potassium Ferricyanide in 400 ml (1.7 cups) water to create STOCK SOLUTION A. Allow 24 hours for the powder to fully dissolve. 2. Dissolve 100 g (approximately .5 cup) Ferric Ammonium Citrate in 400 ml (1.7 cups) water to create if you have Chemistry Open Stock START HERE STOCK SOLUTION B. Allow 24 hours for the powder to fully dissolve. If using the Cyanotype Sensitizer Set, simply fill each bottle with water, shake and allow 24 hours for the powders to dissolve. 3. In subdued lighting, mix equal parts SOLUTION A and SOLUTION B to create the cyanotype sensitizer. Mix only the amount you immediately need, as the sensitizer is stable just 2-4 hours. if you have the Sensitizer Set START HERE 4. Coat paper or fabric with the sensitizer and allow to air dry in the dark. Paper may be double-coated for denser prints. Fabric may be coated or dipped in the sensitizer. Jacquard’s Cyanotype Fabric Sheets and Mural Fabrics are pre-treated with the sensitizer (as above) and come ready to expose. 5. Make exposures in sunlight (1-30 minutes, depending on conditions) or under a UV light source, placing ob- jects or a film negative on the coated surface to create an image. (Note: Over-exposure is almost always preferred to under-exposure.) The fabric will look bronze in color once fully exposed. 6. Process prints in a tray or bucket of cool water. Wash for at least 5 minutes, changing the water periodically, if you have until the water runs clear. -
175359 Orig.Pdf
Dictionary of Media Studies Specialist dictionaries Dictionary of Accounting 0 7475 6991 6 Dictionary of Aviation 0 7475 7219 4 Dictionary of Banking and Finance 0 7136 7739 2 Dictionary of Business 0 7475 6980 0 Dictionary of Computing 0 7475 6622 4 Dictionary of Economics 0 7475 6632 1 Dictionary of Environment and Ecology 0 7475 7201 1 Dictionary of Human Resources and Personnel Management 0 7475 6623 2 Dictionary of ICT 0 7475 6990 8 Dictionary of Information and Library Management 0 7136 7591 8 Dictionary of Law 0 7475 6636 4 Dictionary of Leisure, Travel and Tourism 0 7475 7222 4 Dictionary of Marketing 0 7475 6621 6 Dictionary of Medical Terms 0 7136 7603 5 Dictionary of Military Terms 0 7475 7477 4 Dictionary of Nursing 0 7475 6634 8 Dictionary of Politics and Government 0 7475 7220 8 Dictionary of Science and Technology 0 7475 6620 8 Easier English™ titles Easier English Basic Dictionary 0 7475 6644 5 Easier English Basic Synonyms 0 7475 6979 7 Easier English Dictionary: Handy Pocket Edition 0 7475 6625 9 Easier English Intermediate Dictionary 0 7475 6989 4 Easier English Student Dictionary 0 7475 6624 0 English Thesaurus for Students 1 9016 5931 3 Check Your English Vocabulary workbooks Academic English 0 7475 6691 7 Business 0 7475 6626 7 Computing 1 9016 5928 3 Human Resources 0 7475 6997 5 Law 0 7136 7592 6 Leisure, Travel and Tourism 0 7475 6996 7 FCE + 0 7475 6981 9 IELTS 0 7136 7604 3 PET 0 7475 6627 5 TOEFL® 0 7475 6984 3 TOEIC 0 7136 7508 X Visit our website for full details of all our books: www.acblack.com Dictionary of Media Studies A & C Black ț London www.acblack.com First published in Great Britain in 2006 A & C Black Publishers Ltd 38 Soho Square, London W1D 3HB © A & C Black Publishers Ltd 2006 All rights reserved. -
'Cyanotype and Anthotype: Eco-Patterning with Mineral and Natural Dyes.' Proceedings: International Textile & Costume Congress
Cyanotype and Anthotype: Eco- patterning with mineral and natural dyes Item Type Article Authors Wells, Kate Citation Wells, K. (2015) 'Cyanotype and Anthotype: Eco-patterning with mineral and natural dyes.' Proceedings: International Textile & Costume Congress. 2015. Between Worlds: Innovation and Design in Textiles and Costume. Marmara University, Istanbul: 145 Publisher International Textile and Clothing Congress ITCC Journal Proceedings of the 3rd International Textiles & Costume Congress - ITCC 2015 Download date 28/09/2021 17:18:38 Link to Item http://hdl.handle.net/10545/601182 ‘CYANOTYPE AND ANTHOTYPE: ECO - PATTERNING WITH MINERAL AND NATURAL DYES.’ Wells Kate University of Derby College of Arts Markeaton Street Campus Derby DE22 3AW Abstract: The paper outlines collaborative research between two different disciplines: That of textile design and early colouration methods with historical photographic imaging techniques. The project considers the symbiotic relationship between natural plant extracts with ‘Anthotypes’ and raised colours specifically ‘Prussian Blue’ with ‘Cyanotypes’. The aim of which, is to consider the question: Could this kind of photographic image making be applied as a future, sustainable method of design generation, colouration and patterning of fabric for fashion and interiors? Looking at the substantive and the fugitive properties of the colouration materials along side different light wavelengths and analysing the success or failure of using Anthotypes and Cyanotype as an alternative sustainable surface design process can be attained: A form of Eco-patterning that relies upon light and natural substances/dyes not synthetic dyes as the colouring medium. 1. Introduction This paper discusses a research project, which considered the correlation between Natural and Mineral dyes with early 19th Century photographic processes ‘Cyanotypes’ and ‘Anthotypes’ as a form of eco-patterning that relies upon light and natural subsantnces as the colouring medium. -
Digitizing the Harvard Observatory Plate Collection
Digitizing the Harvard Observatory Plate Collection Scanning the “Historic Sky” Our Goals: Find Funding to Construct a Scanner and Digitize the Harvard Astronomical Photographic Plate Collection. Make the results available in Online Storage. Jonathan E. Grindlay – Harvard Professor of Astronomy Elizabeth Griffin – WG Chair IAU Digitization and Preservation Alison Doane – Acting Curator of the Harvard Plate Stack Douglas J. Mink - Software and Data Archivist Bob Simcoe – Volunteer Associate & System designer Before photography, astronomers’ eyes were their only sensing device and hand drawing was the means of permanent recording. This severely limited the science they could accomplish. rjs Astronomy, as a science, made quantum leaps forward with the advent of photography. For the first time permanent, measurable photographic records made possible “offline” analysis of data. rjs The first daguerreotype of the moon was made by American physiologist J.W. Draper in 1840, involving a full 20 minute exposure. The first star was not recorded until 1850, when director of Harvard Observatory, W.C. Bond and Boston photographer J.A. Whipple, took a daguerreotype of Vega. The first photographic sky surveys were done at Harvard during the period of 1882-1886. Each photograph covered 15 degree squares of sky and recorded stars as faint as 8th magnitude. rjs The world’s collection of astronomical photographic images (estimated at 2 million glass plates) represents the costly output of over a century of devotion and skill by myriad astronomers. Harvard Observatory now has 500,000+ photographs, by far the largest collection and 25% of the world’s total. Harvard’s plates contain the most complete sky coverage of both the northern and southern sky over the longest time period – 1880 to 1989 rjs Since the 1980’s, astronomers have largely abandoned the use of photography. -
Making Photos with the Sun
MAKING PHOTOS WITH THE SUN For her exhibition at Storm King this year, artist Kiki Smith made this artwork, called river light. It is made up of nine brilliant blue flags arranged in a circle. Each flag is an image of sunlight sparkling on water. Kiki took these images from videos she made of the East River in New York City as she walked from her apartment to a nearby pool to swim. To make her flags, Kiki Smith used an almost 180-year- old photography process called cyanotype. A cyanotype is a kind of photograph made without a camera. It is made by coating paper or fabric in chemicals that change color when exposed to light. Then, an object or a transparent photo negative is placed on the treated paper and exposed to the sunlight. Everywhere the sunlight reaches, the paper turns deep blue, but everywhere that it is covered up, where the sun does not reach, stays white. Originally, cyanotypes were used to copy text and architectural drawings. Even though they’re no longer copied by cyanotype, that’s why building plans are still sometimes called blueprints! Anna Atkins was the first person to use the cyanotype process to record other kinds of things beside text and building plans. In 1843 she began placing algae and plant specimens directly onto cyanotype paper and exposing them to light to record their exact size and shape. She included over three hundred of these photograms, or photos made by placing objects directly onto photo-sensitive paper, in the very first book illustrated entirely with photographs, Photographs of British Algae: Cyanotype Impressions. -
Kirlian Photography Manual
Model 5 - Manual and Instructions Images Scientific Instruments, Inc. 109 Woods of Arden Road Staten Island NY 10312 718-966-3694 Tel 718-966-3695 Fax www.imagesco.com 1 Read This First Warning: Kirlian devices are very high voltage contact print photography devices. All high voltage devices are potentially dangerous and must be operated with extreme caution. Do not attempt to operate this device without reading the instructions. Electrical Specifications: Kirlian device requires 117 VAC standard US electrical power. Device draws approximate 7 to 10 watts of power. International customers must use appropriate voltage converter. Disclaimer: Images SI Inc. or its affiliates assume no responsibility for damages consequential or inconsequential or incidental for the use or misuse of the Kirlian photography apparatus. Images makes no warranties, expressed or implied to the fitness of this device for any particu- lar purpose other than that which is listed herein. Safety Precautions A) This equipment should not be used by children or anyone not familiar with normal safety precautions to be used around electrical equipment. B) Do not operate the Kirlian apparatus in the presence of anyone with implanted inductive devices or electrodes such as a heart pacemaker equipment. C) Use a pair of glass lensed sunglasses when viewing the corona discharge if you do not wear glasses. Common glass absorbs the short wave ultra violet rays which can cause eye irritation. D) Do not operate the equipment if there is any evidence of damage to the discharge plate or its dielectric material. E) Limit skin exposure to corona discharge to about 1 minute a day. -
What Is the Cyanotype Process?
Home What is the Cyanotype Process? The Cyanotype process, originally created by Sir John Herschel in 1842, is also known as a "blueprint" process. The final print is characteristically blue in color. The print is typically has a short-scale tonal range, making it somewhat "contrasty." The cyanotype print is also known as a "non-silver" process, since it employs ferric (iron) salts for its photosensitivity, from a combination of two solutions, one containing ferric ammonium citrate and the other solution containing potassium ferricyanide. Combining these complete solutions in equal parts creates a sensitizing solution which is then brushed or painted onto the surface of a substrate like cloth or hot-press watercolor paper. back home next http://www.cistercian.org/school/faculty/Fr-Mark/cyan/home.htm [3/17/2004 9:17:51 PM] Chem 1 Basic Chemistry of Cyanotyping (1) When iron ( Fe, from the Latin "Ferrum") is chemically combined with other elements, its atoms acquire a positive charge by transferring two or three of their orbiting negative electrons onto atoms of other elements. So each iron atom ends up in one of two states: "ferrous" iron - also called iron (II) or Fe2+ for short, "ferric" iron - also called iron (III) or Fe3+. This number 2+ or 3+ is called the oxidation state of the iron, and signifies the positive electric charge that the iron atom has acquired in the reaction. Oxidation makes an atom or molecule more positive (or less negative) in the electrical sense. So when iron forms compounds, it is oxidized. Reduction is the converse: making an atom or molecule less positive (or more negative). -
Proquest Dissertations
Early Cinema and the Supernatural by Murray Leeder B.A. (Honours) English, University of Calgary, M.A. Film Studies, Carleton University A thesis submitted to the Faculty of Graduate Studies and Research in partial fulfillment of the requirements for the degree of Doctor of Philosophy in Cultural Mediations © Murray Leeder September 2011 Library and Archives Bibliotheque et 1*1 Canada Archives Canada Published Heritage Direction du Branch Patrimoine de I'edition 395 Wellington Street 395, rue Wellington OttawaONK1A0N4 OttawaONK1A0N4 Canada Canada Your file Votre reference ISBN: 978-0-494-83208-0 Our file Notre reference ISBN: 978-0-494-83208-0 NOTICE: AVIS: The author has granted a non L'auteur a accorde une licence non exclusive exclusive license allowing Library and permettant a la Bibliotheque et Archives Archives Canada to reproduce, Canada de reproduire, publier, archiver, publish, archive, preserve, conserve, sauvegarder, conserver, transmettre au public communicate to the public by par telecommunication ou par I'lnternet, preter, telecommunication or on the Internet, distribuer et vendre des theses partout dans le loan, distribute and sell theses monde, a des fins commerciales ou autres, sur worldwide, for commercial or non support microforme, papier, electronique et/ou commercial purposes, in microform, autres formats. paper, electronic and/or any other formats. The author retains copyright L'auteur conserve la propriete du droit d'auteur ownership and moral rights in this et des droits moraux qui protege cette these. Ni thesis. Neither the thesis nor la these ni des extraits substantiels de celle-ci substantial extracts from it may be ne doivent etre imprimes ou autrement printed or otherwise reproduced reproduits sans son autorisation. -
Imaging and Imaging Detectors
4–1 Imaging and Imaging Detectors 4–2 Introduction Detectors we have dealt with so far: non-imaging detectors. This lecture: imaging optical photons and X-rays Any imaging system has two parts: 1. Imaging optics In most applications, mirrors are used for imaging, although other techniques (variants of shadow cameras) are used, e.g., for γ-rays 2. Spatially resolved detector i.e., a detector capable of measuring where a photon hits it in the focal plane. This can be a photographic plate or film, but is normally a charge coupled device (CCD). Introduction 1 4–3 Optical Imaging, I Cassegrain telescope, after Wikipedia Reminder: Optical telescopes are usually reflectors: primary mirror secondary mirror detector → → Main characteristics of a telescope: collecting area (i.e., open area of telescope, πd2/4, where d: telescope diameter) • ∼ fpr small telescopes: angular resolution, • λ θ = 1.22 (4.1) d but do not forget the seeing! Imaging 1 4–4 Optical Imaging, II Optical telescopes are based on principle that reflection “just works” with metallic surfaces. For X-rays, things are more complicated... Snell’s law of refraction: sin α n α1 n2 1 1 = = n (4.2) sin α2 n1 θ where n index of refraction, and α1,2 angle wrt. 1 surface normal. If n 1: Total internal reflection Total reflection occurs for α2 = 90◦, i.e. for n < n α 2 1 sin α1,c = n cos θc = n (4.3) 2 ⇐⇒ with the critical angle θ = π/2 α . c − 1,c Clearly, total reflection is only possible for n< 1 Light in glass at glass/air interface: n = 1/1.6 = θc 50◦ = principle behind optical fibers.