The recording format of professional audio recorders has to be considered not only from the error correction point of view but also from the realization of such functions as overdubbing and tape cut editing. At first this paper describes the characteristics of errors which occur in the stationary-head type multi-track high density magnetic recording channel. The effect of fingerprints is also examined. The data shows that a two-dimensional code is effective for correcting the errors because of the nature of the error. Among two-dimensional codes, product code is selected from the stand point of code efficiency and hardware size. As a sub-class of generalized product codes, a code which is a combination of the Reed-Solomon code and the cyclic redundancy check code (CRCC) has been employed. In order to save the data recorded in an erroneous track the Reed-Solomon code is applied across the track and the check bits tracks are provided beside the audio data tracks. The data forms a frame in a track. The frame begins with a frame syncronization code, and is ended by the check bits of the CRCC. The optimum frame length concerning the redundancy and interleaving method of the data is described. The experimental data shows that the error correcting scheme is satisfactory.
The copyright of the original papers published on this site belongs to IEICE. Unauthorized use of the original or translated papers is prohibited. See IEICE Provisions on Copyright for details.
Copy
Kunimaro TANAKA, Minoru OZAKI, Tohru INOUE, Teruo FURUKAWA, "Application of Generalized Product Code for Stationary-Head Type Professional Digital Audio Recorder" in IEICE TRANSACTIONS on transactions,
vol. E69-E, no. 6, pp. 740-749, June 1986, doi: .
Abstract: The recording format of professional audio recorders has to be considered not only from the error correction point of view but also from the realization of such functions as overdubbing and tape cut editing. At first this paper describes the characteristics of errors which occur in the stationary-head type multi-track high density magnetic recording channel. The effect of fingerprints is also examined. The data shows that a two-dimensional code is effective for correcting the errors because of the nature of the error. Among two-dimensional codes, product code is selected from the stand point of code efficiency and hardware size. As a sub-class of generalized product codes, a code which is a combination of the Reed-Solomon code and the cyclic redundancy check code (CRCC) has been employed. In order to save the data recorded in an erroneous track the Reed-Solomon code is applied across the track and the check bits tracks are provided beside the audio data tracks. The data forms a frame in a track. The frame begins with a frame syncronization code, and is ended by the check bits of the CRCC. The optimum frame length concerning the redundancy and interleaving method of the data is described. The experimental data shows that the error correcting scheme is satisfactory.
URL: https://global.ieice.org/en_transactions/transactions/10.1587/e69-e_6_740/_p
Copy
@ARTICLE{e69-e_6_740,
author={Kunimaro TANAKA, Minoru OZAKI, Tohru INOUE, Teruo FURUKAWA, },
journal={IEICE TRANSACTIONS on transactions},
title={Application of Generalized Product Code for Stationary-Head Type Professional Digital Audio Recorder},
year={1986},
volume={E69-E},
number={6},
pages={740-749},
abstract={The recording format of professional audio recorders has to be considered not only from the error correction point of view but also from the realization of such functions as overdubbing and tape cut editing. At first this paper describes the characteristics of errors which occur in the stationary-head type multi-track high density magnetic recording channel. The effect of fingerprints is also examined. The data shows that a two-dimensional code is effective for correcting the errors because of the nature of the error. Among two-dimensional codes, product code is selected from the stand point of code efficiency and hardware size. As a sub-class of generalized product codes, a code which is a combination of the Reed-Solomon code and the cyclic redundancy check code (CRCC) has been employed. In order to save the data recorded in an erroneous track the Reed-Solomon code is applied across the track and the check bits tracks are provided beside the audio data tracks. The data forms a frame in a track. The frame begins with a frame syncronization code, and is ended by the check bits of the CRCC. The optimum frame length concerning the redundancy and interleaving method of the data is described. The experimental data shows that the error correcting scheme is satisfactory.},
keywords={},
doi={},
ISSN={},
month={June},}
Copy
TY - JOUR
TI - Application of Generalized Product Code for Stationary-Head Type Professional Digital Audio Recorder
T2 - IEICE TRANSACTIONS on transactions
SP - 740
EP - 749
AU - Kunimaro TANAKA
AU - Minoru OZAKI
AU - Tohru INOUE
AU - Teruo FURUKAWA
PY - 1986
DO -
JO - IEICE TRANSACTIONS on transactions
SN -
VL - E69-E
IS - 6
JA - IEICE TRANSACTIONS on transactions
Y1 - June 1986
AB - The recording format of professional audio recorders has to be considered not only from the error correction point of view but also from the realization of such functions as overdubbing and tape cut editing. At first this paper describes the characteristics of errors which occur in the stationary-head type multi-track high density magnetic recording channel. The effect of fingerprints is also examined. The data shows that a two-dimensional code is effective for correcting the errors because of the nature of the error. Among two-dimensional codes, product code is selected from the stand point of code efficiency and hardware size. As a sub-class of generalized product codes, a code which is a combination of the Reed-Solomon code and the cyclic redundancy check code (CRCC) has been employed. In order to save the data recorded in an erroneous track the Reed-Solomon code is applied across the track and the check bits tracks are provided beside the audio data tracks. The data forms a frame in a track. The frame begins with a frame syncronization code, and is ended by the check bits of the CRCC. The optimum frame length concerning the redundancy and interleaving method of the data is described. The experimental data shows that the error correcting scheme is satisfactory.
ER -