Next Generation 19 MM Recorder Technology

Similar documents
Achieving 10 Terabytes/Cartridge by 2011

HELICAL SCAN TECHNOLOGY: ADVANCEMENT BY DESIGN

ISO/IEC INTERNATIONAL STANDARD

SMPTE STANDARD. for Digital Video Recording /2-in Type D-5 Component Format /60 and 625/50 ANSI/SMPTE 279M-1996.

A Terabyte Linear Tape Recorder

LINEAR DIGITAL RECORDER WITH 100 MBYTE/SEC HIPPI INTERFACE

1310nm Video SFP Optical Transceiver

ISO/IEC INTERNATIONAL STANDARD

Power (dbm) λ (nm) LINK DISTANCE SDI Bit Rate Max. Link Distance (km) 3G-SDI 2.97Gbps 30 HD-SDI 1.485Gbps 30 SD-SDI 270Mbps 30

April Figure 1. SEM image of tape using MP particles. Figure 2. SEM image of tape using BaFe particles

ME Technology-AIT,S-AIT and Bi-directional recording

FROM IRIG TO MICRO-TRACK THE EVOLUTION OF MULTI-TRACK DATA RECORDING. Edwin Kayes

MultiMac SM. Eddy Current Instrument for Encircling Coil, Sector and Rotary Probe Testing of Tube, Bar, & Wire

CWDM / 3 Gb/s Medium Power SM Video Digital Diagnostic SFP Transceiver

Table of contents. 2. Mechanical Specifications. 2-1 Tape Cassette Helical Recordings Video Signal Processing...6

Communicating And Expanding Visual Culture From Analog To Digital

AN MPEG-4 BASED HIGH DEFINITION VTR

1550 nm TX / 1310 nm RX / 3 Gb/s Medium Power 1-Fibre SM Video SFP Transceiver

THE ENCYCLOPEDIA OF SCMS DAT

CWDM / 3 Gb/s Medium Power Optical SM Digital Diagnostic Transmitter/Receiver FVD2-1TR-SM30-XX

1550 nm / 3 Gb/s Medium Power Single Optical SM Digital Diagnostic Transmitter FVD2-1TR-SM50

INTERNATIONAL STANDARD

Comparative Analysis of Organic Thin Film Transistor Structures for Flexible E-Paper and AMOLED Displays

Sony, metal particle and A3MP tape: Nanoscale technology for terabyte storage

HD Portable Digital Video Recorder SRW-1. HD Video Processor SRPC-1

Specially designed for compatibility with industry standard

1. Publishable summary

MASSACHUSETTS INSTITUTE OF TECHNOLOGY HAYSTACK OBSERVATORY WESTFORD, MASSACHUSETTS 01886

HSR-1 Digital Surveillance Recorder Preliminary

MultiMac. Eddy Current Instrument for Encircling Coil, Sector and Rotary Probe Testing of Tube, Bar, & Wire

High Speed Data Recording: Video Recorders Find A New Application

1310nm Single Channel Optical Transmitter

RECOMMENDATION ITU-R BT.1201 * Extremely high resolution imagery

ISO/IEC INTERNATIONAL STANDARD. Information technology - 8 mm wide magnetic tape cartridge for information interchange - Helical scan recording

Barium Ferrite: The storage media of the future is here today

Natural Radio. News, Comments and Letters About Natural Radio January 2003 Copyright 2003 by Mark S. Karney

Specification for Loose Tube Fiber Optic Cable (Non-Metallic, Dry Block, Figure-8) (G.652.D)

The Future of Tape. Dr. Mark Lantz Manager Advanced Tape Technologies Principal Research Staff Member IBM Research - Zurich.

SMPTE-259M/DVB-ASI Scrambler/Controller

A COMPARATIVE ANALYSIS OF TAPE TECHNOLOGIES FOR MID-RANGE SYSTEMS AND SERVER APPLICATIONS

We will look first at the cable, and then the transceivers (which act as both transmitter and receiver on each end of the fiber cable).

Your reliable storage solutions.

DATA SHEET. Two (2) fibers Detachable HDMI 2.0 Extender,

HIGH QUALITY DUPLICATION

Data Sheet. MGA GHz WLAN Power Amplifier Module. Description. Features. Component Image. Applications. Pin Configuration

MEC -Pipe Crawler FLEXIBLE RISER INSPECTION REPORT

IEEE802.11a Based Wireless AV Module(WAVM) with Digital AV Interface. Outline

INTERNATIONAL STANDARD

THE ART OF ENGINEERING

PM Couplers (Polarization Maintaining Couplers)

Data Interchange on 12,7 mm 128-Track Magnetic Tape Cartridges - DLT 4 Format

FREE TV AUSTRALIA OPERATIONAL PRACTICE OP-28 DIGITAL BETACAM Issue 2 December 2002 Page 1 of 5

Single Fiber SFP Series

R-1580A Microwave Downconverter. Product Brochure

THIS COPYRIGHTED DOCUMENT IS THE PROPERTY OF GLENAIR, INC. AND IS FURNISHED ON THE CONDITION THAT IT IS NOT TO

FAX Image Compression

Development of OLED Lighting Applications Using Phosphorescent Emission System

POLARIZED FIBER OPTIC SOURCE

*Prefer. 600 MHz 4K ULTRA. 60Hz, 4:4:4. over one SC-Terminated Fiber-Optic Cable EXT-DP-4K600-1SC. User Manual. Release A1

Cisco 10GBASE Dense Wavelength-Division Multiplexing SFP+ Modules

AddOn Computer s SFP transceivers are RoHS compliant and lead- free.

Generalpurpose. VHF/UHF Power Amplifier (135 to 600 MHz) T0905. Preliminary

ROTARY HEAD RECORDERS IN TELEMETRY SYSTEMS

New Rotary Magnetron Magnet Bar Improves Target Utilization and Deposition Uniformity

4 SiC epitaxial wafer specification for power device application

MICROLITHIC DOUBLE-BALANCED MIXER

Electrical 25 C Operating Temperature 0 C to +70 C TX RX L/R. RJ45 Durability Testing Rating

Making the tracks on video tape visible with a magnetic fluid

B-AFM. v East 33rd St., Signal Hill, CA (888)

o-microgigacn Data Sheet Revision Channel Optical Transceiver Module Part Number: Module: FPD-010R008-0E Patch Cord: FOC-CC****

The Limits of Tape Recording

MAP Optical Power Meter Module (mopm-b1)

HD Review March 30, 2011 Franz Klein

MICROLITHIC DOUBLE-BALANCED I/Q MIXER

CWDM GBIC. 1.25Gbps GBIC Optical Transceiver, 80km Reach

MODEL NUMBER PVM-20L5

Technology Overview LTCC

BM- AV1- E16SHD Manual BM-AV1-E16SHD. 16 Channel Digital Audio Monitor. User s Guide. Version /01/2013. Version 2.

The Transition to Patterned Media in Hard Disk Drives

Comparison of SONY ILX511B CCD and Hamamatsu S10420 BT-CCD for VIS Spectroscopy

BM-A1-E16SHD V2.2. Manual BM-A1-E16SHD. 16 Channel Digital Audio Monitor. User s Guide. Page 1

FRONT-END AND READ-OUT ELECTRONICS FOR THE NUMEN FPD

Analog Devices Welcomes Hittite Microwave Corporation NO CONTENT ON THE ATTACHED DOCUMENT HAS CHANGED

THIS COPYRIGHTED DOCUMENT IS THE PROPERTY OF GLENAIR, INC. AND IS FURNISHED ON THE CONDITION THAT IT IS NOT TO

FiberLink 3500 Series Transceivers

projectors, head mounted displays in virtual or augmented reality use, electronic viewfinders

TA Document Enhancements to the AV/C Tape Recorder/Player Subunit Specification Version 2.1

Illumination Challenges in Non- Industrial Vision Applications. Simon Stanley Managing Director ProPhotonix IRL Ltd

Applications Keypad Backlighting Symbol Backlighting Status Indication Front Panel Indicator

MICROLITHIC DOUBLE-BALANCED MIXER

WHAT IS THE FUTURE OF TAPE TECHNOLOGY FOR DATA STORAGE AND MANAGEMENT?

MICROLITHIC DOUBLE-BALANCED I/Q MIXER

Digital HD Videocassette Recorder HVR-M10U

3G, HD & SD-SDI. Embedders & De-Embedders. Catalogue

MICROLITHIC DOUBLE-BALANCED MIXER

SERIAL DIGITAL VIDEO FIBER OPTIC TRANSPORT & DISTRIBUTION MODULAR SYSTEM FOR HDTV & SDTV

Sony HD Digital Video Cassette Player

Dual Output SDI/HD SDI Video Pattern Generator

Agilent N7744A 4-Channel Optical Multiport Power Meter N7745A 8-Channel Optical Multiport Power Meter. Fully compliant to LXI Class C specification

TranScend Opto-Stacker & Destacker. Operation Manual

Transcription:

Next Generation 19 MM Recorder Technology D. Morgan, T. Yoshida Sony Electronics Inc. 3300 Zanker Rd, San Jose, CA Tel: (408) 955-4925, Fax: (408) 955-5555 email: don_morgan@sdc.sel.sony.com April 21, 1998 SONY 1

Objective of Research Study Search for a path to higher performance Data Rate / Capacity Recorder / Format Examine maintaining some compatibility with ID-1 format April 21, 1998 SONY 2

Target Specifications DIR-1000H DIR-X DIR-XX User Data Transfer Rate 512 Mbps 1024 Mbps 2048 Mbps Storage Capacity L 100 GByte 200 Gbyte 456 GByte Media Co-oxide 16 µ m Co-oxide 16 µ m Metal 13 µ m Rec Data Rate/ch 88 Mbps 88 Mbps 176 Mbps Rec Hds / Proc ch 16/8ch 32/16ch 32/16ch Shortest Wavelength 0.89 µ m 0.89 µ m 0.49 µ m Track Pitch 45 µ m 22.5 µ m 22.5 µ m Writing Speed 39.5 m/sec 39.5 m/sec 42.8 m/sec Tape Speed 847.5mm/sec 847.5mm/sec 918.0mm/sec Scanner Rotation 110 rps- 110 rps 120 rps Record Time/L-Cassette 26 min 26 min 29 min April 21, 1998 SONY 3

ID-1 Review Track Set 5J=HJ BJH=? IAJ ) J = J E J H =? 5J=HJ BJH=? IAJ 0 A=@ JE 6 = F A J E + J H J H =? ) J = J E J H =? April 21, 1998 SONY 4

ID-1 Review Helical Track Dimensions ) J= JE JH=?, EH A? J E B D A = @ J E 45 µ "#µ %, EH A? J E B J = F A J E + J H J H =? 6 E A? @ A J H =? 4 A B A H A? A A @ C A April 21, 1998 SONY 5

ID-1 Review Track Straightness "#µ µ #µ 4 A B A H A? A A @ C A A A A! A " A # A $ 6 = F A A @ C A April 21, 1998 SONY 6

ID-1 Review Cross Track Straightness of DIR-1000 0.1µm Units 100 75 50 25 0-25 -50-75 Line 1 Line 2 Line 3-100 1 16 32 48 64 80 96 11 2 12 8 14 4 16 0 17 6 19 2 20 8 22 4 24 0 25 6 27 2 30 4 32 0 33 6 35 2 36 8 Track Number April 21, 1998 SONY 7

ID-1 Review User data - 36,108 Bytes/Track C1, C2 ECC Interleaved within the Track Track Set ( 144,432 Bytes ) uniquely identified by 32 bit TSID on Control Track and by 22 bit plus track position ID in each Helical Track April 21, 1998 SONY 8

DD-1 Review User Data - 32,768 Bytes/Track C3 ECC Interleaved across Track Set April 21, 1998 SONY 9

DIR-1000 to DIR-1000H DIR-1000 DIR-1000H Record Data Rate / ch 88 Mbps 88 Mbps Number of Heads Rec: 8 / PB: 8 Rec: 16 / PB: 16 Number of Rotary Transformer Channels Rec: 8 / PB: 8 Rec: 8 / PB: 8 Drum Rotation 110 rps 110 rps Tape Speed 423.6 mm/s 847.2 mm/s April 21, 1998 SONY 10

Scanner Head Drum April 21, 1998 SONY 11

DIR-1000H Head switching Lower Drum Scanner Scanner Upper Drum REC Head MOS Relay Tape PB Head Pre Amp Rec Amp REC BOARD EQ BOARD (180 opposite) Control SIG Power Rotary Timing GEN Timing DEC 5V AC GEN PD BOARD April 21,1998 SONY 12

Noise Performance 0-10 -20 DIR-1000 Sony SD-1 ƒé O D W X (RBW 100K) Rec Head (Ferrite) :45um PB Head (Ferrite) :45um 0-10 -20 DIR-1000H Sony SD-1 (RBW 100K) ƒé OD W X Rec Head (Ferrite) :45ƒÊ m PB Head (Amorphous) :30ƒÊ m output (db) -30-40 -50-60 -70-80 -90 Pre Amp noise 0 10 20 30 40 50 60 Frequencv (MHz) Output (db) -30-40 -50-60 -70-80 Pre Amp noise -90 0 10 20 30 40 50 60 Frequency (MHz) April 21,1998 SONY 13

Recording One Gigabit/sec, 2X DIR-X is possible by doubling the number of channels: 32 record heads driven by 16 channels of electronics, reducing the track width and pitch to 22.5 µm Several issues must be considered How much compatibility with ID-1 format? Recording DIR-X Track Set defined as 4 or 8 helical tracks? ECC block size? April 21, 1998 SONY 14

Compatibility with ID-1 Format Reading ID-1 format with narrow track heads is possible. If writing an ID-1 footprint is required for 1X recording there are two possibilities: One method - have two sets of record heads (45 µm, 22.5 µm) The other method - overwrite previously written wide tracks at half the tape speed which results in narrow tracks This later case may require changing the channel coding from 8/9 to something with less low frequency content. April 21, 1998 SONY 15

Overwrite Method 5J=HJ BJH=? IAJ ) J = J E J H =? 0 A=@ JE # µ 6 = F A J E + J H J H =? ) J = J E J H =? April 21, 1998 SONY 16

Recording DIR-X Track Set defined as 4 or 8 helical tracks? If 4 tracks Longitudinal TSID must be written at double density. This is being studied. The parameters of ID-1 and DD-1 apply. If 8 tracks Helical track ID must be redefined in the track identification bits. The TSID represents twice the data size or 288,864 bytes of user data. April 21, 1998 SONY 17

ECC block size? The narrow tracks of the 2X recording theoretically degrades the signal to noise ratio by 3 db and thus the raw random errors by more than 3 orders of magnitude. It may be desirable to increase the ECC block size such that C2 is interleaved over entire Track Set (4 or 8 tracks) to improved the performance of the ECC. April 21, 1998 SONY 18

Advances in head technology Reference: IEEE Transactions on Magnetics, November 1994 H. Ohmori, et al, A Thin Film Head for HD-VCRs The key advantages are: high efficiency head MIG allows recording MP tape at higher data-rates Amorphous PB heads - increased output from MP tape small chip size -localized free air flux spray small rubbing surface surrounded by non-magnetic ceramic allows for new low-noise Pre-amp design more head chips around the drum higher frequency capability allow for higher channel data-rates April 21, 1998 SONY 19

E-TF Heads One difficulty with E-TF heads is that gap widths are limited to between 20-25µm. The reasons for this are economical production difficulty in producing uniform layers. 45 µm track width recording not possible with E-TF heads. April 21, 1998 SONY 20

Embedded Thin Film Heads April 21, 1998 SONY 21

Multiple Gap Head Tests April 21, 1998 SONY 22

Contact Area / Tip Projection Head-1 Head-2 Y GL=900um 20nm 60nm 100nm Rx=10.5mm,Ry=2mm,P-40um,T=30gf 20nm 60nm 100nm Rx=15mm,Ry=2.5mm,P-45um,T=30gf X Longitudinal radius,rx(mm) 20 18 16 14 12 30 Good contact area 35 40 45 50 Head protrusion,p(um) 20nm 60nm 100nm 1.8mm 0.2mm Œ» s ƒw ƒb ƒh DIR 1000H Head-3 Rx=15mm,Ry=4mm,P-45um,T=30gf 0.25mm Rx=8mm 2mm Magnetic core Ferrit Rx=15mm Ceramic Magnetic core Thin film coil April 21,1998 SONY 23

The Ultimate Possibility, 2 Gigabit/sec, 4X DIR-XX achieved by doubling the channel data-rate over that of DIR-X MP media allows higher density recording by 2x Shortest wave length held to 0.49 µm by slightly increasing the writing speed, tape speed and scanner rotation (see table). Record time ( L-Cassette) is extended to 29 minutes by using 13 mm tape thickness. April 21, 1998 SONY 24

Multigap Heads on Drum April 21, 1998 SONY 25

Noise Performance 0-10 -20 DIR-1000 DIR-1000H DIR-XX Sony SD-1 ƒé OD W X (RBW 100K) Rec Head (Ferrite) :45um PB Head (Ferrite) :45um (RBW 100K) 0-10 -20 Sony SD-1 ƒé OD W X Rec Head (Ferrite) :45ƒÊ m PB Head (Amorphous) :30ƒÊ m 0-10 -20 Sony HD Tape (RBW 100K) ƒé OD S X Rec Head (Ferrite.HM) :20ƒÊ m PB Head (Amorphous) :30ƒÊ m output -30-40 -50-60 Output (db) -30-40 -50-60 Output (db) -30-40 -50-60 -70-70 -70 (db) -80 Pre Amp noise -90 0 10 20 30 40 50 60 Frequencv (MHz) -80 Pre Amp noise -90 0 10 20 30 40 50 60 Frequency (MHz) -80 Pre Amp noise -90 0 10 20 30 40 50 60 Frequency (MHz) April 21,1998 SONY 26

The Challenge Is it necessary for the new high performance implementation of DIR-X to have foreward compatibility with ID-1 format recorded tapes? If the answer is no, manufacturers can focus on implementing a new format for optimum performance, first at 1 Gbps, with the next generation implementation at 2 Gbps. The enabling technologies are within our grasp to accomplish these challenging projects. April 21, 1998 SONY 27