Evolution of Photography: Film to Digital
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Xerox Confidentcolor Technology Putting Exacting Control in Your Hands
Xerox FreeFlow® The future-thinking Print Server ConfidentColor Technology print server. Brochure It anticipates your needs. With the FreeFlow Print Server, you’re positioned to not only better meet your customers’ demands today, but to accommodate whatever applications you need to print tomorrow. Add promotional messages to transactional documents. Consolidate your data center and print shop. Expand your color-critical applications. Move files around the world. It’s an investment that allows you to evolve and grow. PDF/X support for graphic arts Color management for applications. transactional applications. With one button, the FreeFlow Print Server If you’re a transactional printer, this is the assures that a PDF/X file runs as intended. So print server for you. It supports color profiles when a customer embeds color-management in an IPDS data stream with AFP Color settings in a file using Adobe® publishing Management—so you can print color with applications, you can run that file with less time confidence. Images and other content can be in prepress and with consistent color. Files can incorporated from a variety of sources and reliably be sent to multiple locations and multiple appropriately rendered for accurate results. And printers with predictable results. when you’re ready to expand into TransPromo applications, it’s ready, too. Xerox ConfidentColor Technology Find out more Putting exacting control To learn more about the FreeFlow Print Server and ConfidentColor Technology, contact your Xerox sales representative or call 1-800-ASK-XEROX. Or visit us online at www.xerox.com/freeflow. in your hands. © 2009 Xerox Corporation. All rights reserved. -
Development of Non-Traditional Platinum Anticancer Agents: Trans-Platinum Planar Amine Compounds and Polynuclear Platinum Compounds
Virginia Commonwealth University VCU Scholars Compass Theses and Dissertations Graduate School 2015 Development of Non-Traditional Platinum Anticancer Agents: trans-Platinum Planar Amine Compounds and Polynuclear Platinum Compounds Daniel E. Lee Virginia Commonwealth University Follow this and additional works at: https://scholarscompass.vcu.edu/etd Part of the Chemical Actions and Uses Commons, Inorganic Chemistry Commons, Medicinal Chemistry and Pharmaceutics Commons, and the Medicinal-Pharmaceutical Chemistry Commons © The Author Downloaded from https://scholarscompass.vcu.edu/etd/3809 This Dissertation is brought to you for free and open access by the Graduate School at VCU Scholars Compass. It has been accepted for inclusion in Theses and Dissertations by an authorized administrator of VCU Scholars Compass. For more information, please contact [email protected]. © 2015 Daniel E. Lee All Rights Reserved DEVELOPMENT OF NON-TRADITIONAL PLATINUM ANTICANCER AGENTS: TRANS- PLATINUM PLANAR AMINE COMPOUNDS AND POLYNUCLEAR PLATINUM COMPOUNDS A Dissertation Submitted in the Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy in Chemistry at Virginia Commonwealth University. by Daniel E. Lee B. Sc in Chemistry, Temple University, 2007 Advisor: Nicholas P. Farrell, Professor, Department of Chemistry, College of Humanities and Sciences, Virginia Commonwealth University Virginia Commonwealth University Richmond, VA February, 2015 ACKNOWLEDGEMENTS What a journey it has been! It has been the amazing experience but also probably has been the most difficult time of my life so far. I have met many wonderful individuals throughout the graduate program and I would like to express my sincere gratitude for all the supports and contributions. First of all, I would like to thank Dr. -
Digital Holography Using a Laser Pointer and Consumer Digital Camera Report Date: June 22Nd, 2004
Digital Holography using a Laser Pointer and Consumer Digital Camera Report date: June 22nd, 2004 by David Garber, M.E. undergraduate, Johns Hopkins University, [email protected] Available online at http://pegasus.me.jhu.edu/~lefd/shc/LPholo/lphindex.htm Acknowledgements Faculty sponsor: Prof. Joseph Katz, [email protected] Project idea and direction: Dr. Edwin Malkiel, [email protected] Digital holography reconstruction: Jian Sheng, [email protected] Abstract The point of this project was to examine the feasibility of low-cost holography. Can viable holograms be recorded using an ordinary diode laser pointer and a consumer digital camera? How much does it cost? What are the major difficulties? I set up an in-line holographic system and recorded both still images and movies using a $600 Fujifilm Finepix S602Z digital camera and a $10 laser pointer by Lazerpro. Reconstruction of the stills shows clearly that successful holograms can be created with a low-cost optical setup. The movies did not reconstruct, due to compression and very low image resolution. Garber 2 Theoretical Background What is a hologram? The Merriam-Webster dictionary defines a hologram as, “a three-dimensional image reproduced from a pattern of interference produced by a split coherent beam of radiation (as a laser).” Holograms can produce a three-dimensional image, but it is more helpful for our purposes to think of a hologram as a photograph that can be refocused at any depth. So while a photograph taken of two people standing far apart would have one in focus and one blurry, a hologram taken of the same scene could be reconstructed to bring either person into focus. -
Session Outline: History of the Daguerreotype
Fundamentals of the Conservation of Photographs SESSION: History of the Daguerreotype INSTRUCTOR: Grant B. Romer SESSION OUTLINE ABSTRACT The daguerreotype process evolved out of the collaboration of Louis Jacques Mande Daguerre (1787- 1851) and Nicephore Niepce, which began in 1827. During their experiments to invent a commercially viable system of photography a number of photographic processes were evolved which contributed elements that led to the daguerreotype. Following Niepce’s death in 1833, Daguerre continued experimentation and discovered in 1835 the basic principle of the process. Later, investigation of the process by prominent scientists led to important understandings and improvements. By 1843 the process had reached technical perfection and remained the commercially dominant system of photography in the world until the mid-1850’s. The image quality of the fine daguerreotype set the photographic standard and the photographic industry was established around it. The standardized daguerreotype process after 1843 entailed seven essential steps: plate polishing, sensitization, camera exposure, development, fixation, gilding, and drying. The daguerreotype process is explored more fully in the Technical Note: Daguerreotype. The daguerreotype image is seen as a positive to full effect through a combination of the reflection the plate surface and the scattering of light by the imaging particles. Housings exist in great variety of style, usually following the fashion of miniature portrait presentation. The daguerreotype plate is extremely vulnerable to mechanical damage and the deteriorating influences of atmospheric pollutants. Hence, highly colored and obscuring corrosion films are commonly found on daguerreotypes. Many daguerreotypes have been damaged or destroyed by uninformed attempts to wipe these films away. -
Digital Camera Functions All Photography Is Based on the Same
Digital Camera Functions All photography is based on the same optical principle of viewing objects with our eyes. In both cases, light is reflected off of an object and passes through a lens, which focuses the light rays, onto the light sensitive retina, in the case of eyesight, or onto film or an image sensor the case of traditional or digital photography. The shutter is a curtain that is placed between the lens and the camera that briefly opens to let light hit the film in conventional photography or the image sensor in digital photography. The shutter speed refers to how long the curtain stays open to let light in. The higher the number, the shorter the time, and consequently, the less light gets in. So, a shutter speed of 1/60th of a second lets in half the amount of light than a speed of 1/30th of a second. For most normal pictures, shutter speeds range from 1/30th of a second to 1/100th of a second. A faster shutter speed, such as 1/500th of a second or 1/1000th of a second, would be used to take a picture of a fast moving object such as a race car; while a slow shutter speed would be used to take pictures in low-light situations, such as when taking pictures of the moon at night. Remember that the longer the shutter stays open, the more chance the image will be blurred because a person cannot usually hold a camera still for very long. A tripod or other support mechanism should almost always be used to stabilize the camera when slow shutter speeds are used. -
Sample Manuscript Showing Specifications and Style
Information capacity: a measure of potential image quality of a digital camera Frédéric Cao 1, Frédéric Guichard, Hervé Hornung DxO Labs, 3 rue Nationale, 92100 Boulogne Billancourt, FRANCE ABSTRACT The aim of the paper is to define an objective measurement for evaluating the performance of a digital camera. The challenge is to mix different flaws involving geometry (as distortion or lateral chromatic aberrations), light (as luminance and color shading), or statistical phenomena (as noise). We introduce the concept of information capacity that accounts for all the main defects than can be observed in digital images, and that can be due either to the optics or to the sensor. The information capacity describes the potential of the camera to produce good images. In particular, digital processing can correct some flaws (like distortion). Our definition of information takes possible correction into account and the fact that processing can neither retrieve lost information nor create some. This paper extends some of our previous work where the information capacity was only defined for RAW sensors. The concept is extended for cameras with optical defects as distortion, lateral and longitudinal chromatic aberration or lens shading. Keywords: digital photography, image quality evaluation, optical aberration, information capacity, camera performance database 1. INTRODUCTION The evaluation of a digital camera is a key factor for customers, whether they are vendors or final customers. It relies on many different factors as the presence or not of some functionalities, ergonomic, price, or image quality. Each separate criterion is itself quite complex to evaluate, and depends on many different factors. The case of image quality is a good illustration of this topic. -
Seeing Like Your Camera ○ My List of Specific Videos I Recommend for Homework I.E
Accessing Lynda.com ● Free to Mason community ● Set your browser to lynda.gmu.edu ○ Log-in using your Mason ID and Password ● Playlists Seeing Like Your Camera ○ My list of specific videos I recommend for homework i.e. pre- and post-session viewing.. PART 2 - FALL 2016 ○ Clicking on the name of the video segment will bring you immediately to Lynda.com (or the login window) Stan Schretter ○ I recommend that you eventually watch the entire video class, since we will only use small segments of each video class [email protected] 1 2 Ways To Take This Course What Creates a Photograph ● Each class will cover on one or two topics in detail ● Light ○ Lynda.com videos cover a lot more material ○ I will email the video playlist and the my charts before each class ● Camera ● My Scale of Value ○ Maximum Benefit: Review Videos Before Class & Attend Lectures ● Composition & Practice after Each Class ○ Less Benefit: Do not look at the Videos; Attend Lectures and ● Camera Setup Practice after Each Class ○ Some Benefit: Look at Videos; Don’t attend Lectures ● Post Processing 3 4 This Course - “The Shot” This Course - “The Shot” ● Camera Setup ○ Exposure ● Light ■ “Proper” Light on the Sensor ■ Depth of Field ■ Stop or Show the Action ● Camera ○ Focus ○ Getting the Color Right ● Composition ■ White Balance ● Composition ● Camera Setup ○ Key Photographic Element(s) ○ Moving The Eye Through The Frame ■ Negative Space ● Post Processing ○ Perspective ○ Story 5 6 Outline of This Class Class Topics PART 1 - Summer 2016 PART 2 - Fall 2016 ● Topic 1 ○ Review of Part 1 ● Increasing Your Vision ● Brief Review of Part 1 ○ Shutter Speed, Aperture, ISO ○ Shutter Speed ● Seeing The Light ○ Composition ○ Aperture ○ Color, dynamic range, ● Topic 2 ○ ISO and White Balance histograms, backlighting, etc. -
Bronica Sq-A-M.Pdf
Congratulations on your choice of the Zenza Bronica SQ-Am single lens reflex camera which has been developed to provide the user with high quality performance, simple handling convenience and extremely useful versatility plus automatic motorized film winding and shutter cocking operations suitable for the professional photographer. Although the Zenza Bronica SQ-Am has been designed exclusively for motorized operations, it has, also, been developed as a complete modular "system" camera possessing complete interchangeability with the interchangeable lenses and accessories developed for the SQ and SQ-A models, on which the SQ-Am is also based, and, therefore, provides the user with a very high degree of motorization in daily operations, in addition to automatic film winding and shutter cocking actions. Although instructions following are based on a standard combination consisting of the SQ-Am main body with Zenzanon-S 80mm lens, Film Back SQ 120 and WaistLevel Finder S, the choice of the lens, film back and finder is left to the discretion of the photographer, who should choose those items best suited to the type of assignments contemplated. To obtain best results from the Zenza Bronica SQ-Am, may we suggest that you read this instruction manual through carefully, before you even touch the camera, as your pleasure in using the camera will be even greater if you thoroughly familiarize yourself with its working parts before loading your first roll of film. CONTENTS Specifications of the ZENZA 17. Interchanging Finders ................................23 BRONICA SQ-Am ......................................... 2 18. Waist-Level Finder and Parts of the ZENZA BRONICA Interchanging Magnifiers ..................................23 19. -
1.1 Introduction to the Digital Systems
1.1 Introduction to the digital systems PHO 130 F Digital Photography Prof. Lorenzo Guasti How a DSLR work and why we call a camera “reflex” The heart of all digital cameras is of course the digital imaging sensor. It is the component that converts the light coming from the subject you are photographing into an electronic signal, and ultimately into the digital photograph that you can view or print PHO 130 F Digital Photography Prof. Lorenzo Guasti Although they all perform the same task and operate in broadly the same way, there are in fact th- ree different types of sensor in common use today. The first one is the CCD, or Charge Coupled Device. CCDs have been around since the 1960s, and have become very advanced, however they can be slower to operate than other types of sensor. The main alternative to CCD is the CMOS, or Complimentary Metal-Oxide Semiconductor sen- sor. The main proponent of this technology being Canon, which uses it in its EOS range of digital SLR cameras. CMOS sensors have some of the signal processing transistors mounted alongside the sensor cell, so they operate more quickly and can be cheaper to make. A third but less common type of sensor is the revolutionary Foveon X3, which offers a number of advantages over conventional sensors but is so far only found in Sigma’s range of digital SLRs and its forthcoming DP1 compact camera. I’ll explain the X3 sensor after I’ve explained how the other two types work. PHO 130 F Digital Photography Prof. -
Diy Photography & Jr: Photographic Stickers
1 DIY PHOTOGRAPHY & JR: PHOTOGRAPHIC STICKERS For grade levels 3-12 Developed by: PEITER GRIGA The world now contains more photographs than bricks, and they are, astonishingly, all different. - John Szarkowski Are images the spine and rib cage of our society or are we so saturated in photography that we forget the underlying messages we ‘read’ from images? Are we protected/ supported by images or flooded by them? JR’s work elaborates on the idea of how we value images by demonstrating our likenesses and differences. This dichotomy is so great in his work; JR can eliminate himself as the artist, becoming the egoless ‘guide.’ As part of his Inside Out Project he allows people from all around the world to send him pictures they take of themselves, which he then prints out a poster sized image and returns to the image maker, who then selects a location and hangs the work in a public space. In a traditional sense, he hands the artistic power over to the participant and only controls the printing and specs for the images. The CAC participated in the Inside Out Project as early as 2011, but most recently through installations in Fountain Square, Rabbit Hash, KY, Findlay Market, and inside the CAC Lobby. The power of the image and the location of the image are vital aspects of JR’s site-specific work. Building upon these two factors is the material used to place the image in the public space. His materials usually include wheat paste, paper, and a large scale digitally printed image. -
Ionic and Electronic Properties of Silver Iodide Grains
Ionic and Electronic Properties of Silver Iodide Grains Hiroyuki Mifune, Tadaaki Tani, Seiji Yamashita, Satoshi Aiba, Tomoyuki Ohzeki, Katsutoshi Yamane Materials Research Division, Fuji Photo Film Co.,Ltd., Japan Abstract The dark conductivity (i.e., ionic conductivity) of silver iodide Extensive studies have been made on the ionic and electronic grains was measured by means of the dielectric loss method3. The properties of silver iodide emulsion grains to characterize the time-resolved photoconductivity of the grains was measured by latent image formation on the grains in photothermographic means of the 35GHz microwave photoconductivity and radiowave materials. photoconductivity methods3. The oxidation potential of latent image centers was determined by use of redox buffer solutions with Introduction a Fe2+/Fe+3 redox system5. Silver iodide was practically used in such photographic materials as Daguerreotype at the very early stage of silver halide Results and Discussion photography. Even at room temperature, silver iodide has a strong 1. Ionic Properties of Silver Iodide Grains exciton band in the blue region of its absorption spectrum, which Figure 1 shows the dielectric loss of silver iodide grains as a results from the direct transition in it, and is much stronger in function of frequency, giving a curve with two peaks. As the ionic absorbance than the absorption bands of silver bromide and silver conductivity derived from the lower frequency peak was chloride in the blue region, which result from their indirect proportional to the surface/volume ratio of the grains, it was transitions. However, silver iodide could not continue to contribute ascribed to the movement of carriers, which were formed from the to practical photographic materials for a long time owing to the surface and moved in the grains. -
FILM FORMATS ------8 Mm Film Is a Motion Picture Film Format in Which the Filmstrip Is Eight Millimeters Wide
FILM FORMATS ------------------------------------------------------------------------------------------------------------ 8 mm film is a motion picture film format in which the filmstrip is eight millimeters wide. It exists in two main versions: regular or standard 8 mm and Super 8. There are also two other varieties of Super 8 which require different cameras but which produce a final film with the same dimensions. ------------------------------------------------------------------------------------------------------------ Standard 8 The standard 8 mm film format was developed by the Eastman Kodak company during the Great Depression and released on the market in 1932 to create a home movie format less expensive than 16 mm. The film spools actually contain a 16 mm film with twice as many perforations along each edge than normal 16 mm film, which is only exposed along half of its width. When the film reaches its end in the takeup spool, the camera is opened and the spools in the camera are flipped and swapped (the design of the spool hole ensures that this happens properly) and the same film is exposed along the side of the film left unexposed on the first loading. During processing, the film is split down the middle, resulting in two lengths of 8 mm film, each with a single row of perforations along one edge, so fitting four times as many frames in the same amount of 16 mm film. Because the spool was reversed after filming on one side to allow filming on the other side the format was sometime called Double 8. The framesize of 8 mm is 4,8 x 3,5 mm and 1 m film contains 264 pictures.