A New Super-16Mm Telecine Alignment Film
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Shadow Telecinetelecine
ShadowShadow TelecineTelecine HighHigh performanceperformance SolidSolid StateState DigitalDigital FilmFilm ImagingImaging TechnologyTechnology Table of contents • Introduction • Simplicity • New Scanner Design • All Digital Platform • The Film Look • Graphical Control Panel • Film Handling • Main Features • Six Sector Color Processor • Cost of ownership • Summary SHADOWSHADOTelecine W Telecine Introduction The Film Transfer market is changing const- lantly. There are a host of new DTV formats required for the North American Market and a growing trend towards data scanning as opposed to video transfer for high end compositing work. Most content today will see some form of downstream compression, so quiet, stable images are still of paramount importance. With the demand growing there is a requirement for a reliable, cost effective solution to address these applications. The Shadow Telecine uses the signal proce- sing concept of the Spirit DataCine and leve- rages technology and feature of this flagship product. This is combined with a CCD scan- ner witch fulfils the requirements for both economical as well as picture fidelity. The The Film Transfer market is evolving rapidly. There are a result is a very high performance producthost allof new DTV formats required for the North American the features required for today’s digital Marketappli- and a growing trend towards data scanning as cation but at a greatly reduced cost. opposed to video transfer for high end compositing work. Most content today will see some form of downstream Unlike other Telecine solutions availablecompression, in so quiet, stable images are still of paramount importance. With the demand growing there is a this class, the Shadow Telecine is requirementnot a for a reliable, cost effective solution to re-manufactured older analog Telecine,address nor these applications. -
Problems on Video Coding
Problems on Video Coding Guan-Ju Peng Graduate Institute of Electronics Engineering, National Taiwan University 1 Problem 1 How to display digital video designed for TV industry on a computer screen with best quality? .. Hint: computer display is 4:3, 1280x1024, 72 Hz, pro- gressive. Supposing the digital TV display is 4:3 640x480, 30Hz, Interlaced. The problem becomes how to convert the video signal from 4:3 640x480, 60Hz, Interlaced to 4:3, 1280x1024, 72 Hz, progressive. First, we convert the video stream from interlaced video to progressive signal by a suitable de-interlacing algorithm. Thus, we introduce the de-interlacing algorithms ¯rst in the following. 1.1 De-Interlacing Generally speaking, there are three kinds of methods to perform de-interlacing. 1.1.1 Field Combination Deinterlacing ² Weaving is done by adding consecutive ¯elds together. This is ¯ne when the image hasn't changed between ¯elds, but any change will result in artifacts known as "combing", when the pixels in one frame do not line up with the pixels in the other, forming a jagged edge. This technique retains full vertical resolution at the expense of half the temporal resolution. ² Blending is done by blending, or averaging consecutive ¯elds to be displayed as one frame. Combing is avoided because both of the images are on top of each other. This instead leaves an artifact known as ghosting. The image loses vertical resolution and 1 temporal resolution. This is often combined with a vertical resize so that the output has no numerical loss in vertical resolution. The problem with this is that there is a quality loss, because the image has been downsized then upsized. -
A R R I T E C H N I C a L N O T E
A R R I T E C H N I C A L N O T E P - 1013 USA TV Ground Glass Markings Summary This note describes the frame outlines relevant to shooting film for television in the USA. The Important Frame Outlines to Know Both the markings on the ground glass and telecine calibration films are based on international standards that assure that an object framed in a given spot through the viewfinder will appear on that same spot in telecine. When shooting for television, one should be familiar with the following frame lines: Camera Aperture TV Transmission TV Safe Action TV Safe Title (not shown on most ground glasses) Please note that the frame outlines pictured above are for a Super 35 ground glass, and will be slightly different for other formats. Also note that TV Safe Title is usually not shown on most ground glasses. Full Aperture Corresponds to the full amount of negative film exposed. Caution: most ground glasses will permit viewing outside of this area, but anything outside of this area will not be recorded on film. This outline is usually found on ground glasses, but not in telecine. TV Transmission The full video image that is transmitted over the air. Sometimes also called “TV Scanned”. TV Safe Action Since most TV sets crop part of the TV Transmission image, a marking inside of TV Transmission has been defined. Objects that are within the TV Safe Action lines will be visible on most TV sets. This marking is sometimes referred to as “The Pumpkin”. -
Format Factor Fundamentals (Corrections Appreciated - [email protected])
Mark Schubin's Format Factor Fundamentals (corrections appreciated - [email protected]) Dimensions in mm; figures rounded; diagonal determines lens format; AR is aspect ratio; divide comparable dimensions for format factor; lp/mm figures for dimension with highest resolution; 1920 represents lp/mm at full-HD resolution. Camera Diagonal AR :1 Width Height lp/mm 1920 Vision Research Phantom 65 59.6 5:3 1.67 51.2 30.5 40 19 Full-frame DSLR (Canon 5D) 43.3 3:2 1.5 36 24 27 Dalsa Origin, Evolution 38.1 ~2:1 1.98 34.0 17.2 60 31 NAC Memrecam fx K4 35.6 5:4 1.25 27.8 22.2 23 35 Super Hi-Vision 2.5-inch 34 16:9 1.78 29.8 16.4 129 32 Super 35 film 31.1 4:3 1.33 24.9 18.7 -- -- Weisscam HS-2 31.1 4:3 1.33 24.9 18.7 55 39 ARRI D-21 30.8 4:3 1.33 23.8 17.8 61 40 Vision Research Phantom HD 29.1 16:9 1.78 25.6 13.9 40 38 APS-C Canon 7D 28.6 ~13:8 1.64 24.4 14.9 39 APS-C Nikon, Pentax DSLR 28.4 3:2 1.5 23.6 15.8 41 Red One 28.0 16:9 1.78 24.4 13.7 93 39 Panavision Genesis 27.5 16:9 1.78 24.0 13.5 120 40 35-mm Academy aperture film 27.3 11:8 1.38 22.0 16.0 -- -- APS-C Canon DSLR 26.8 3:2 1.5 22.3 14.9 43 Photron Ultima APX-RS 24.6 1:1 1 17.4 17.4 29 55 Panasonic 4/3 DSLR 21.6 16:9 1.78 18.9 10.6 51 Weinberger Cine SpeedCam 20 ~3:2 1.55 17 11 47 56 Super Hi-Vision/4K 1.25-inch 19 16:9 1.78 16.6 9.2 231 58 Weisscam HS-1 19 5:4 1.25 15 12 43 64 1-inch 1035-line HDTV 16.0 16:9 1.78 13.9 7.8 69 69 1-inch 720-line HDTV 16.0 16:9 1.78 13.9 7.8 46 69 Super 16 film 14.5 5:3 1.67 12.5 7.4 -- -- 16-mm film 12.7 11:8 1.38 10.3 7.5 -- -- Ikonoskop a-cam dII 12.2 -
Spirit 4K® High-Performance Film Scanner with Bones and Datacine®
Product Data Sheet Spirit 4K® High-Performance Film Scanner with Bones and DataCine® Spirit 4K Film Scanner/Bones Combination Digital intermediate production – the motion picture workflow in which film is handled only once for scan- ning and then processed with a high-resolution digital clone that can be down-sampled to the appropriate out- put resolution – demands the highest resolution and the highest precision scanning. While 2K resolution is widely accepted for digital post production, there are situations when even a higher re- solution is required, such as for digital effects. As the cost of storage continues to fall and ultra-high resolu- tion display devices are introduced, 4K postproduction workflows are becoming viable and affordable. The combination of the Spirit 4K high-performance film scanner and Bones system is ahead of its time, offe- ring you the choice of 2K scanning in real time (up to 30 frames per second) and 4K scanning at up to 7.5 fps depending on the selected packing format and the receiving system’s capability. In addition, the internal spatial processor of the Spirit 4K system lets you scan in 4K and output in 2K. This oversampling mode eli- minates picture artifacts and captures the full dynamic range of film with 16-bit signal processing. And in either The Spirit 4K® from DFT Digital Film Technology is 2K or 4K scanning modes, the Spirit 4K scanner offers a high-performance, high-speed Film Scanner and unrivalled image detail, capturing that indefinable film DataCine® solution for Digital Intermediate, Commer- look to perfection. cial, Telecine, Restoration, and Archiving applications. -
CATV in Central Appalachia: a Feasibility Study. INSTITUTION Morehead State Univ., Ky
DOCUMENT RESUME ED 053 380 AC 010 563 AUTHOR Marchese, Lamar TITLE CATV in Central Appalachia: A Feasibility Study. INSTITUTION Morehead State Univ., Ky. Appalachian Adult Education Center. SPONS AGENCY Appalachian Regional Commission, Washington, D.C. NOTE 75p.; Interim Report EDRS PRICE EDRS Price MF-$0.65 HC-$3.29 DESCRIPTORS *Cable Television, Community Antennas, *Depressed Areas (Geographic), *Educational Needs, *Statistical Data, *Surveys IDENTIFIERS *Appalachia ABSTRACT This document examines the problems and potentials that cable televisions have in public service, with a view toward understanding CATV's growth and how that growth relates to the developmental and educational needs of the Appalachian Region. Six developmental districts in Appalachia were chosen for intensive study.A team of consultants was organized to perform the research. Statistics were collected by the questionnaire method. Data gathered indicate that: (1) Cable systems that have been 0-500 subscribers have an average market saturation of 60%; (2) Systems with between 501 and 1,500 subscribers have an average 63% market saturation; (3) Cable systems with 1,501 to 3,500 and above have an average market penetration of 62%. This survey also showed that the CATV operators would be interested in participating in a regional cable television network. Upon completion of the research, an engineering report will be issued. (CK) U.S. DEPARTMENT OF HEALTH. EDUCATION & WELFARE OFFICE OF EDUCATION THIS DOCUMENT HAS BEEN REPRO- DUCED EXACTLY AS RECEIVED FROM THE PERSON OR ORGANIZATION ORIG- INATING IT POINTS OF VIEW OR OPIN IONS STATED DO NOT NECESSARILY REPRESENT OFFICIAL OFFICE OF EDU CATION POS,ION OR POLICY CATV IN CENTRALAPPALACHIA A FEASIBILITY STUDY Prepared. -
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. -
Quality Assurance Workbook for Radiographers & Radiological Technologists
(/ J . ' WHO/DIUOU DISTRIBUTION: GENERAL ORIGINAL: ENGLISH Quality assurance workbook for radiographers & radiological technologists by Peter J Lloyd MIR, OCR, ARMI~ Grad Dip FEd Lecturer (retired), School of Medical Radiation, University of South Australia Diagnostic Imaging and Laboratory Technology Blood Safety and Clinical Technology Health Technology' and Pharmaceuticals WORLD HEALTH ORGANIZATION Geneva © World Health Organization, 2001 This document is not a formal publication of the World Health Organization (WHO), and all rights are reserved by the Organization. The document may, however, be freely reviewed, abstracted, reproduced and translated, in part or in whole, but not for sale for use in conjunction with commercial purposes. The views expressed in documents by named authors are solely the responsibility of those authors. Designed in New Zealand Typeset in Hong l<ong Printed in Malta 2001/13663- minimum graphics/Best Set/Interprint- 3000 Ill Contents Introductory remarks vii Acknowledgements viii Introduction 1 Purpose of this workbook 1 Who this workbook is aimed at 2 What this workbook aims to achieve 2 Summary of this workbook 2 How to use this workbook 2 Roles and responsibilities 3 Questionnaire-student's own department 5 Pretest 7 Teaching techniques 10 Overview of teaching methods in common use 10 Assessment 10 Teacher performance 12 Suggested method of teaching with this workbook 12 Conclusions 12 Health and safety 15 Machinery 15 Electrical 15 Fire 15 Hazardous chemicals 16 Radiation 16 Working with the patient 17 Disaster 17 Module 1. Reject film analysis 19 Setting up a reject film analysis program 19 Method 20 Analysis 20 Action 20 Tasks to be carried out by the student 24 Module 2. -
185 for Presentation July 8, 1971, NATIONAL CABLE TELEVISION
185 For presentation July 8, 1971, NATIONAL CABLE TELEVISION ASSOCIATION, Washington, D. C. TELECINE SYSTEMS FOR THE CATV ORIGINATION CENTER by Kenneth K. Kaylor Phil ips Broadcast Equipment Corp. Although 11 1 ive'' programming is considered a necessary part of the program origination services of a community-oriented CATV system, tele- cine facilities will hold the key to success or failure of such an operation from an economic standpoint. The word 11 tele-cine11 was developed during the early days of television broadcasting to define those facil i- ties devoted to the video reproduction of the various film media. Since the original commercial telecine television camera was an 11 iconoscope11 camera which had a very large sensitive surface (about 11 11 3 x 4 ), a film projector was focused onto the sensor by using a standard projection lens as shown in Fig. 1. This technique was quite simple and optical alignment was very easy. E1 im i nat i ng the 11 Shutte r Bar" effect In the case of motion picture film, the theatre projector had to be modified in order to prevent a "shutter bar" effect caused by the 186 difference in frame rates between television and motion picture stan dards. Standard sound motion picture film operates at 24 frames per second while the U. S. standard for television scanning is 30 frames per second. The intermittent mechanism had to be modified so that the 1ength of time between "pu 11 -downs" a 1 te rnates between 1/20 and 1/30 second. The average of these two fractions is 1/24 second, or the time demanded by the standard 24-frame-per-second motion picture projection rate. -
I32-1997 the Use of Super 16 Mm Film for Television Production
EBU Technical Information I32-1997 The Use of Super 16 mm Film for Television Production EBU Committee First issued Revised Re-issued PMC 1997 Keywords: Film, 16:9 Telecines 1. Introduction This EBU Technical Information document reports on the way and extent that EBU Members and their programme suppliers use Super 16 mm film in 4:3 and 16:9 television production. A questionnaire was sent to EBU Members and other organisations involved in programme production for EBU Members. Replies were received from 36 organisations; 31 broadcasting organisations and 5 film and/or video post-production organisations. The replies showed that 26 organisations were using Super 16 mm; 22 of these were broadcasters located in Austria, Belgium, the Czech Republic, Denmark, Finland, France, Germany, Japan, Greece, the Netherlands, Norway, Poland, Slovakia, Slovenia, Spain, Sweden, Switzerland and the United Kingdom. The present Technical Information document is based on the replies to the questionnaire. In a parallel exercise, the EBU has attempted to give a comparison between the costs of using Super 16 mm and 35 mm film for television production. This comparison is given in Appendix 1 2. Main Applications of Super 16 mm Film 2.1 Types of programme produced on Super 16 mm film Super 16 mm film is mainly used for single camera drama and documentary production. The final product may be intended for television release only, or, in the case of a co-production, it may be intended for both television and cinema release. 2.2 Reported advantages in the use of Super 16 mm film The reported advantages of producing in Super 16 mm film, as compared to 35 mm film, are lower costs of camera film and equipment, lower costs of film laboratory services, and a smaller technical staff needed for shooting. -
Scanity High Performance, Cost-Effective, Multi-Application Film Scanner
digital film technology Scanity high performance, cost-effective, multi-application film scanner standing the test of time standing the test of time high performance film scanner Scanity >>> Scanity >>> Key Features : High quality multi-format Time Delay Integration Continuous motion capstan Scanity is a film scanner improve their ROI, film scanner that offers (TDI) sensor technology film transport that offers unprecedented enhance productivity, unprecedented speed, for extremely fast and Optical perforation speed, versatility, stability, work effectively in data- versatility, stability, and safe sensitive film scans - 4300 detection and touch free and safe film handling. centric workflows, and film handling horizontal active pixels, image stabilization to service their markets with 96 TDI lines, 6μ pixel size It serves a variety of High speed scanning - 4K provide pin registered a solution that reproduces relative to the film scanning applications scanning up to 15 fps, steadiness the pristine quality of film including, archive film 2K up to 25 fps, 1K up Independent from frame and image quality they Highly integrated, scanning, mass digitization, to 44 fps, 0.5K up to 69 height - film frame aspect require. dedicated and fast spatial dailies, feature film fps, 0.25K up to 96 fps ratio is matched by the image processing manages mastering, EDL/conform Scanity uses efficient LED (depending on hardware) number of lines content scaling and scanning, low resolution light sources, dedicated Versatile multi-application Over scanning in horizontal formatting browsing, archive and hardware processors, as scanner, archive film and vertical direction Dirt and scratch handling restoration, short-form well as fewer and less scanning, mass digitization, beyond image boundaries capabilities with diffuse commercials, as well expensive third party EDL/conform scanning, LED light sources with illumination and IR as digital intermediate components. -
EBU Tech 3315-2006 Archiving: Experiences with TK Transfer to Digital
EBU – TECH 3315 Archiving: Experiences with telecine transfer of film to digital formats Source: P/HDTP Status: Report Geneva April 2006 1 Page intentionally left blank. This document is paginated for recto-verso printing Tech 3315 Archiving: Experiences with telecine transfer of film to digital formats Contents Introduction ......................................................................................................... 5 Decisions on Scanning Format .................................................................................... 5 Scanning tests ....................................................................................................... 6 The Results .......................................................................................................... 7 Observations of the influence of elements of film by specialists ........................................ 7 Observations on the results of the formal evaluations .................................................... 7 Overall conclusions .............................................................................................. 7 APPENDIX : Details of the Tests and Results ................................................................... 9 3 Archiving: Experiences with telecine transfer of film to digital formats Tech 3315 Page intentionally left blank. This document is paginated for recto-verso printing 4 Tech 3315 Archiving: Experiences with telecine transfer of film to digital formats Archiving: Experience with telecine transfer of film to digital formats