Timeline: 20 Years of Digital Photography
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Page 16 of 128 Exhibit No. Description Deposition
Case 1:04-cv-01373-KAJ Document 467-2 Filed 10/23/2006 Page 1 of 140 Exhibit Description Deposition Objections No. Ex. No. PTX-168 7/16/2003, Technical Reference Napoli Ex. Manual [DM270] (EKCCCI007053- 132 836) PTX-169 2003, Data Sheet for TMS320DM270 Processor (AX200153-55) PTX-170 10/30/2002, DM270 Preliminary Napoli Ex. Register Manual Rev. b0.6 131 (EKCCCI001305-495) PTX-171 TI DM270 Imx Hardware Akiyama Programming Interface, Version 0.0 Ex. 312 (EKCNYII005007249-260) PTX-172 3/3/2003, DM270 Preliminary Data Ohtake Ex. Sheet Rev. b0.7C (EKCCCI008094- 123 131) PTX-173 Fact Sheet for TMS320DM270 Lacks Processor (AX200150-52) authenticity; Hearsay; Lacks foundation; Lacks relevance PTX-174 6/04, Data Sheet rev 0.5 for Hynix Ligler Ex. Lacks HY57V561620C[L]T[P] (AX200163- 13 (ITC) authenticity; 74) Hearsay; Lacks foundation; Lacks relevance PTX-175 Sharp RJ21T3AA0PT Data Sheet Hearsay; (EKCCCI017389-413) Lacks foundation; Lacks relevance PTX-176 DX7630 Thumbnail Test Lacks (AXD022568-81) authenticity; Hearsay; Lacks foundation; Lacks relevance; Inaccurate/ incomplete description PTX-177 1/11/2005, DM270 IP Chain ver. 0.7 Yoshikawa with translation (EKC001021025-31, Ex. 348 AX211033-42) PTX-178 1/26/2004, Bud Camera F/W Task Lacks foundation; Interface Capture Main <-> Image ISR Lacks relevance (DX7630) ver. 0.07 / Takeshi Domen with translation (EKCCCI002404-19, AX211607-26) Page 16 of 128 Case 1:04-cv-01373-KAJ Document 467-2 Filed 10/23/2006 Page 2 of 140 Exhibit Description Deposition Objections No. Ex. No. PTX-179 2/17/2003, Budweiser Camera EXIF Akiyama Lacks foundation; File Access Library Spec (DX7630) Ex. -
Do Something Important.TM
2.6X zoom in a cool, compact, capsule design with Advanced Photo System convenience. Do somethingwww.minolta.com important.TM www.minolta.com It’s All Within Your Grasp The VECTIS 260 makes picture-taking more fun for the whole family. The Advanced Photo System means easier operation and higher quality pictures, and a powerful 2.6X zoom expands your photo possibilities. Various automatic functions make it simple for everyone to take great pictures. It’s the compact camera that gives you more. ADVANCED PHOTO SYSTEM Get closer with 2.6X zoom! High-quality zoom lens adds variety to your photos. Powerful 2.6X Zoom A zoom lens this powerful gives you much greater versatility in framing your shots. You can take broad shots of the scenery, then zoom in for close-ups of the kids. The zoom range is a wide 25 — 65mm (equivalent to 31— 81mm in 35mm for- mat). For close-ups, you can move in as close as 1.64 ft. to your subject at any focal length, without having to set a special mode. Best of all, 25mm WIDE your photo will be sharp and clear, thanks to the Minolta high quality 4-element, 4-group zoom lens. 65mm TELE Greater ease and convenience Advanced Photo System makes photography more enjoyable — from start to finish! Index Prints for At-a-Glance Selection Drop-In Loading With photos this good, you’ll want to make reprints ... and now and Film Chamber Lock you can easily select the ones you want. With your pictures The ultimate in film loading you’ll receive an Index Print sheet, making it easy ease. -
Invention of Digital Photograph
Invention of Digital photograph Digital photography uses cameras containing arrays of electronic photodetectors to capture images focused by a lens, as opposed to an exposure on photographic film. The captured images are digitized and stored as a computer file ready for further digital processing, viewing, electronic publishing, or digital printing. Until the advent of such technology, photographs were made by exposing light sensitive photographic film and paper, which was processed in liquid chemical solutions to develop and stabilize the image. Digital photographs are typically created solely by computer-based photoelectric and mechanical techniques, without wet bath chemical processing. The first consumer digital cameras were marketed in the late 1990s.[1] Professionals gravitated to digital slowly, and were won over when their professional work required using digital files to fulfill the demands of employers and/or clients, for faster turn- around than conventional methods would allow.[2] Starting around 2000, digital cameras were incorporated in cell phones and in the following years, cell phone cameras became widespread, particularly due to their connectivity to social media websites and email. Since 2010, the digital point-and-shoot and DSLR formats have also seen competition from the mirrorless digital camera format, which typically provides better image quality than the point-and-shoot or cell phone formats but comes in a smaller size and shape than the typical DSLR. Many mirrorless cameras accept interchangeable lenses and have advanced features through an electronic viewfinder, which replaces the through-the-lens finder image of the SLR format. While digital photography has only relatively recently become mainstream, the late 20th century saw many small developments leading to its creation. -
KODAK Advantix Films
TECHNICAL DATA / ADVANCED PHOTO SYSTEM February 2002 • E-7003 KODAK ADVANTiX Films Welcome to the innovative world of the Advanced Photo Kodak offers three color negative films for the Advanced System and KODAK ADVANTiX Films! Photo System. These films share the following features: At the heart of the Advanced Photo System, KODAK ADVANTiX Films are truly hybrid products. They use Features Benefits breakthrough photographic emulsion and coating • KODAK Film Safe • Worry-free, drop-in loading technologies to deliver excellent image quality in the smaller Cassette • Automatic film threading and rewinding film format. • Safe storage of negatives At the same time, Kodak’s magnetics technology enables • Index print of all exposures coating the entire surface of the film with a transparent • Choice of picture • “Classic,” similar to 35 mm prints magnetic layer. This layer records digital information that formats on the same • “Group,” for slightly wider shots links all Advanced Photo System components through roll • “Pan,” for panoramic scenes information exchange (IX). IX permits communication • Film Status Indicator • Easy identification of status of between you, the camera, the film, and the photofinishing (FSI) on cassette film inside the cassette— unexposed, partially exposed, equipment in the lab that processes and prints your film. exposed, or processed ADVANTiX Films come in a unique elliptical film • Choice of film speed • Selection of 100-, 200-, or cassette called a KODAK Film Safe Cassette. A code 400-speed film number is assigned to each cassette and the film inside. The • Information Exchange • Exposure and print format data number enables automatic rematching of the cassette and (IX) recorded on the film to optimize film in photofinishing operations. -
Advanced Photo System Format Selector
Patentamt Europaisches || || 1 1| || || 1 1 1 1|| 1 1|| || || (19) J European Patent Office Office europeen des brevets (11) EP 0 878 730 A1 (12) EUROPEAN PATENT APPLICATION (43) Date of publication:ation: (51) |nt. CI.6: G03B 17/24 18.11.1998 Bulletin 1998/47 (21) Application number: 98201408.6 (22) Date of filing: 01.05.1998 (84) Designated Contracting States: (72) Inventors: AT BE CH CY DE DK ES Fl FR GB GR IE IT LI LU • Freeman, Jay Davis MC N L PT SE Rochester, New York 1 4650-2201 (US) Designated Extension States: • Carr, Thomas Daniel AL LT LV MK RO SI Rochester, New York 1 4650-2201 (US) • Chamberlain IV, Frederick Rockwell (30) Priority: 1 6.05.1 997 US 857392 Rochester, New York 1 4650-2201 (US) (71) Applicant: EASTMAN KODAK COMPANY (74) Representative: Rochester, New York 1 4650 (US) Lewandowsky, Klaus, Dipl.-lng. et al Kodak Aktiengesellschaft, Patentabteilung 70323 Stuttgart (DE) (54) Advanced photo system format selector (57) In a single use camera (100), having a roll of magnetically coated film (14) with defined image frames disposed in the camera; and further having an exposure system for selectively exposing an image frame of the film in one of a plurality of image formats; the improve- ment comprising: a movably mounted permanent magnet (26); and a manually selectable mechanism coupled to the permanent magnet (26) for moving the permanent magnet to record a magnetic mark on the magneti- cally coated film at a predetermined location rela- tive to an exposed image frame, the location of the FIG. -
Are You Ready for a Digital Camera? by Jennifer Ruisaard and Conrad Turner
Are You Ready for a Digital Camera? by Jennifer Ruisaard and Conrad Turner Digital cameras flashed onto the technology scene a few years ago, threatening the future of conventional photography. Employing the same elements as traditional cameras, digital cameras convert images into a series of pixels that computers can understand and display directly on-screen. These digital images transmit easily through e-mail attachments and are instantly ready to use. The quality of digital images improved drastically over the last five years. In addition, digital cameras offer the benefits of speed, flexibility, and cost savings. Digital photographs are easy to retouch and manipulate through programs such as Photoshop. Furthermore, digital images do not need to be scanned. Therefore, defects introduced by the scanning process are eliminated. Types of Digital Cameras The digital photography market offers consumers three types of cameras: low-, mid-, and high-range. Buyers of digital cameras should choose a camera depending on their specific needs and the type of job to be done. Low-end digital cameras cost around $1,000 and are equivalent to conventional point-and- shoot cameras. Their low resolution, usually about 640 ´ 480 pixels, makes them a cost-effective tool for jobs that do not require high quality, sharpness, or color accuracy. This range of cameras can produce quality prints up to 2.4 ´ 1.8 inches at 133 lpi (266 ppi), which is sufficient for small brochures, advertisements, and catalog images. The next group of digital cameras, called mid-range, cost between $5,000 and $15,000. These cameras are essentially traditional Single Lens Reflex (SLR) camera bodies. -
MIVC- 7000 Promavicatm Still Video Camera Recorder
MIVC- 7000 ProMavicaTM Still Video Camera Recorder .High density 1/2 inch Interline Transfer CCD 3-chip camera .Approx 380,000 effective pixels per CCD .Over 500 1V lines of resolution using Hi-band recording .Easy-to-operate, ergonomically designed .Increased effective focal length .Flexible exposure control system .Playback and erase functions .High quality video output .Convenient ID recording .Mechanical focal plane shutter for quality frame recording .Skip function .Selectable frame or field recording mode .Precise metering system .Informative LCD .Convenient shutter release .AC/DC operation .Optional electronic flash H-32 MVC- 7000 (CONTINUED) Specifications SUPPlie1 Accessories Recording Format: Still Video floppy ShoulderBody Cap stap Video: Luminance: fM recording Chrominance: R-Y, B-Y Differential Lithium Ba ery Color Line Sequential fM recording Instruction anual Recording Mode: Hi-band Optiona~ Accessories Video Signal System: NTSC color MKA-7 Imager: Three 1/2" interline transfer CCD image sensors Output Ad ptor Picture Elements: 380,000 pixels (768(H) x 494(V)) MCL-06T Lens Mount: Bayonet mount (Sony original) Wide Lens Focusing System: Manual Viewfinder: TTL optical viewfinder, viewing area MCL-300C 92% Lens Adap or (for Canon) TTL center-weighted and Light Metering SMF-1200 spot metering RGB-4BN Cable Shutter: focal-plane, %-Y;ooo sec. Flash-Sync: Y;50sec (max synchronization speed) SMF-1230 I White Balance: Self-adjusting automatic white LCD Monit~r Cable balance, 3200K/5800K/memory AC-M55 Drive (Shutter) Mode: Single, -
Graphicconverter 6.6
User’s Manual GraphicConverter 6.6 Programmed by Thorsten Lemke Manual by Hagen Henke Sales: Lemke Software GmbH PF 6034 D-31215 Peine Tel: +49-5171-72200 Fax:+49-5171-72201 E-mail: [email protected] In the PDF version of this manual, you can click the page numbers in the contents and index to jump to that particular page. © 2001-2009 Elbsand Publishers, Hagen Henke. All rights reserved. www.elbsand.de Sales: Lemke Software GmbH, PF 6034, D-31215 Peine www.lemkesoft.com This book including all parts is protected by copyright. It may not be reproduced in any form outside of copyright laws without permission from the author. This applies in parti- cular to photocopying, translation, copying onto microfilm and storage and processing on electronic systems. All due care was taken during the compilation of this book. However, errors cannot be completely ruled out. The author and distributors therefore accept no responsibility for any program or documentation errors or their consequences. This manual was written on a Mac using Adobe FrameMaker 6. Almost all software, hardware and other products or company names mentioned in this manual are registered trademarks and should be respected as such. The following list is not necessarily complete. Apple, the Apple logo, and Macintosh are trademarks of Apple Computer, Inc., registered in the United States and other countries. Mac and the Mac OS logo are trademarks of Apple Computer, Inc. Photo CD mark licensed from Kodak. Mercutio MDEF copyright Ramon M. Felciano 1992- 1998 Copyright for all pictures in manual and on cover: Hagen Henke except for page 95 exa- mple picture Tayfun Bayram and others from www.photocase.de; page 404 PCD example picture © AMUG Arizona Mac Users Group Inc. -
A High Full Well Capacity CMOS Image Sensor for Space Applications
sensors Article A High Full Well Capacity CMOS Image Sensor for Space Applications Woo-Tae Kim 1 , Cheonwi Park 1, Hyunkeun Lee 1 , Ilseop Lee 2 and Byung-Geun Lee 1,* 1 School of Electrical Engineering and Computer Science, Gwangju Institute of Science and Technology, Gwangju 61005, Korea; [email protected] (W.-T.K.); [email protected] (C.P.); [email protected] (H.L.) 2 Korea Aerospace Research Institute, Daejeon 34133, Korea; [email protected] * Correspondence: [email protected]; Tel.: +82-62-715-3231 Received: 24 January 2019; Accepted: 26 March 2019; Published: 28 March 2019 Abstract: This paper presents a high full well capacity (FWC) CMOS image sensor (CIS) for space applications. The proposed pixel design effectively increases the FWC without inducing overflow of photo-generated charge in a limited pixel area. An MOS capacitor is integrated in a pixel and accumulated charges in a photodiode are transferred to the in-pixel capacitor multiple times depending on the maximum incident light intensity. In addition, the modulation transfer function (MTF) and radiation damage effect on the pixel, which are especially important for space applications, are studied and analyzed through fabrication of the CIS. The CIS was fabricated using a 0.11 µm 1-poly 4-metal CIS process to demonstrate the proposed techniques and pixel design. A measured FWC of 103,448 electrons and MTF improvement of 300% are achieved with 6.5 µm pixel pitch. Keywords: CMOS image sensors; wide dynamic range; multiple charge transfer; space applications; radiation damage effects 1. Introduction Imaging devices are essential components in the space environment for a range of applications including earth observation, star trackers on satellites, lander and rover cameras [1]. -
Advanced Photo System™ [IX240] Format SLR Camera PRONEA S / Specifications
Advanced Photo System™ [IX240] Format SLR Camera PRONEA S / Specifications Type of camera: Autofocus, built-in Speedlight, electronically controlled focal Data for front imprint: Year/Month/Day, M/D/Y, D/M/Y, plane shutter Advanced Photo System™ (IX240 format) sin- Hr./Min. and No Imprint. gle-lens reflex Data for backprint: Hr./Min., M/D/Y, D/M/Y or Y/M/D/Hr./Min. Compatible film: IX240 cartridge film; 16.7 × 30.2mm picture format when No Imprint selected. 30 titles in 12 languages can be Print Type: Three types are available: H, P and C backprinted. Power: from the camera body, date data remains in memory for approx. 5 minutes without batteries Lens mount: Nikon F mount Power source: Two CR2-type lithium batteries; four 1.5V “AA”-size alkaline Lenses: IX-Nikkor lenses, AF Nikkor lenses (PC Micro 85mm f/2.8D (LR6) or lithium (FR6) batteries with Power Pack MB-11 cannot be used) Battery power: I for sufficient power; O indicates batteries are Focus modes: Autofocus (AF) or Manual (M) confirmation: nearing exhaustion; blinking O indicates batteries are just Autofocus: Auto-Servo AF: automatically chooses Single Servo AF or about exhausted; no indication/symbol appears when batter- Continuous Servo AF operation according to the subject sta- ies are completely exhausted or improperly installed tus, i.e. stationary or moving (including directional information) Autofocus TTL phase detection system using Nikon AM280 Number of 40- (25-) exposure film rolls per fresh battery (Approx.)*: detection system: autofocus module; AF-Assist Illuminator provided At 20°C/68°F At –10°C/14°F Autofocus detection range: Approx. -
Lecture Notes 3 Charge-Coupled Devices (Ccds) – Part II • CCD
Lecture Notes 3 Charge-Coupled Devices (CCDs) { Part II • CCD array architectures and pixel layout ◦ One-dimensional CCD array ◦ Two-dimensional CCD array • Smear • Readout circuits • Anti-blooming, electronic shuttering, charge reset operation • Window of interest, pixel binning • Pinned photodiode EE 392B: CCDs{Part II 3-1 One-Dimensional (Linear) CCD Operation A. Theuwissen, \Solid State Imaging with Charge-Coupled Devices," Kluwer (1995) EE 392B: CCDs{Part II 3-2 • A line of photodiodes or photogates is used for photodetection • After integration, charge from the entire row is transferred in parallel to the horizontal CCD (HCCD) through transfer gates • New integration period begins while charge packets are transferred through the HCCD (serial transfer) to the output readout circuit (to be discussed later) • The scene can be mechanically scanned at a speed commensurate with the pixel size in the vertical direction to obtain 2D imaging • Applications: scanners, scan-and-print photocopiers, fax machines, barcode readers, silver halide film digitization, DNA sequencing • Advantages: low cost (small chip size) EE 392B: CCDs{Part II 3-3 Two-Dimensional (Area) CCD • Frame transfer CCD (FT-CCD) ◦ Full frame CCD • Interline transfer CCD (IL-CCD) • Frame-interline transfer CCD (FIT-CCD) • Time-delay-and-integration CCD (TDI-CCD) EE 392B: CCDs{Part II 3-4 Frame Transfer CCD Light−sensitive CCD array Frame−store CCD array Amplifier Output Horizontal CCD Integration Vertical shift Operation Vertical shift Horizotal shift Time EE 392B: CCDs{Part II 3-5 Pixel Layout { FT-CCD D. N. Nichols, W. Chang, B. C. Burkey, E. G. Stevens, E. A. Trabka, D. -
CODE by R.Mutt
CODE by R.Mutt dcraw.c 1. /* 2. dcraw.c -- Dave Coffin's raw photo decoder 3. Copyright 1997-2018 by Dave Coffin, dcoffin a cybercom o net 4. 5. This is a command-line ANSI C program to convert raw photos from 6. any digital camera on any computer running any operating system. 7. 8. No license is required to download and use dcraw.c. However, 9. to lawfully redistribute dcraw, you must either (a) offer, at 10. no extra charge, full source code* for all executable files 11. containing RESTRICTED functions, (b) distribute this code under 12. the GPL Version 2 or later, (c) remove all RESTRICTED functions, 13. re-implement them, or copy them from an earlier, unrestricted 14. Revision of dcraw.c, or (d) purchase a license from the author. 15. 16. The functions that process Foveon images have been RESTRICTED 17. since Revision 1.237. All other code remains free for all uses. 18. 19. *If you have not modified dcraw.c in any way, a link to my 20. homepage qualifies as "full source code". 21. 22. $Revision: 1.478 $ 23. $Date: 2018/06/01 20:36:25 $ 24. */ 25. 26. #define DCRAW_VERSION "9.28" 27. 28. #ifndef _GNU_SOURCE 29. #define _GNU_SOURCE 30. #endif 31. #define _USE_MATH_DEFINES 32. #include <ctype.h> 33. #include <errno.h> 34. #include <fcntl.h> 35. #include <float.h> 36. #include <limits.h> 37. #include <math.h> 38. #include <setjmp.h> 39. #include <stdio.h> 40. #include <stdlib.h> 41. #include <string.h> 42. #include <time.h> 43. #include <sys/types.h> 44.