mireabulletinRussian Technological JournalRussian Technological Journal2782-32102500-316XRTU MIREA10.32362/2500-316X-2023-11-2-20-32mireabulletin-651Research ArticleИНФОРМАЦИОННЫЕ СИСТЕМЫ. ИНФОРМАТИКА. ПРОБЛЕМЫ ИНФОРМАЦИОННОЙ БЕЗОПАСНОСТИINFORMATION SYSTEMS. COMPUTER SCIENCES. ISSUES OF INFORMATION SECURITYБиблиометрический анализ литературы по голографическому хранению данныхBibliometric analysis of holographic data storage literaturehttps://orcid.org/0000-0002-3510-5924KumarK.KumarK.

Kutty Kumar, PhD, доцент кафедры библиотечно-информационных наук

Scopus Author ID 55040539500

Проддатур, штат Андхра Прадеш, 516360 Индия

Kutty Kumar, PhD, Assistant Professor, Department of Library and Information Science

Scopus Author ID 55040539500

New Building, Gopavaram Village, Korapadu Road, Proddatur-516360, Andhra Pradesh, India

kumarkkutty@gmail.comhttps://orcid.org/0000-0001-5799-1472ParameswaranR.ParameswaranR.

R. Parameswaran, PhD, заместитель библиотекаря, Центральная библиотека

Scopus Author ID 56009308100

R. Parameswaran, PhD, Deputy Librarian, Central Library

Scopus Author ID 56009308100

Ajagara, Varanasi, Uttar Pradesh, 221005 India

parameshwaranblu@gmail.comКолледж ветеринарных наук, Ветеринарный университет Шри ВенкатешварыИндияCollege of Veterinary Science, Sri Venkateswara Veterinary UniversityIndiaБенаресский индуистский университетИндияBanaras Hindu UniversityIndia2023060420231122032Copyright © Kumar K., Parameswaran R., 20232023Kumar K., Parameswaran R.Kumar K., Parameswaran R.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://www.rtj-mirea.ru/jour/article/view/651Цели

Цели. Моментальные снимки данных можно хранить на голографических носителях на различной глубине. Они могут быть записаны по спиральному каналу передачи данных на вращающиеся голографические носители в виде круглых дисков, похожих на CD или DVD. После записи данные можно считать через просвечивание опорным лучом при помощи рефракции. В отличие от CD/DVD носителей, в голографических запоминающих устройствах информация кодируется во всех трех измерениях. Двумерные данные записываются с помощью одного лазерного луча, который закручивается по спирали вокруг материала. Для того чтобы сохранить один миллион пикселей, прототипы решений для голографического хранения данных использовали крошечные конусы, образованные отдельными снимками данных или страницами. По сравнению с магнитными дисками и кассетами, срок службы которых ограничен максимум 50 годами, долговечность и надежность оптических носителей информации имеет явное преимущество при долгосрочном архивировании. Голографическая технология обеспечивает переносимость носителей с большим объемом данных, таких как телепрограммы или видео высокой четкости. Однако срок годности голографических носителей остается низким из-за их чувствительности к свету. Основными целями использования большинства устройств хранения данных являются увеличение объема памяти и более быстрая передача данных. Голографические запоминающие устройства потенциально могут превзойти традиционные оптические устройства как по емкости, так и по производительности. Цель настоящей работы – оценить актуальные международные тенденции исследований в области голографического хранения данных и составить графическое отображение соавторства и стран.

Методы

Методы. Для анализа была осуществлена выборка данных, в которую вошли авторы, тип, количество публикаций, учреждение, страна, количество и место цитирований. После экспорта 1052 источников данных для анализа цитат использовалось программное обеспечение HistCite; визуализация была выполнена с использованием программного обеспечения VOSviewer и языка программирования R для анализа ассоциации

«автор – страна – название» о голографическом хранении данных.

Результаты

Результаты. При помощи HistCite были определены наиболее значимые авторы, статьи, журналы, организации и страны в области голографического хранения данных. Затем, используя VOSviewer, мы исследовали четыре кластера, основанных на авторских ключевых словах, сетях сотрудничества по цитированию между различными организациями, странами, а также сетями соавторов, пишущих о голографическом хранении данных.

Выводы

Выводы. За период исследования с 2000 по 2020 гг. (21 год) 4636 авторов написали 1052 публикации. Наибольшее количество публикаций было издано в 2009 г. с коэффициентом детерминации R2 = 0.0136. Наиболее продуктивный автор, Джей Ли, опубликовал 3.14% статей по голографическому хранению данных. С точки зрения распространения по странам первое место в рейтинге заняла Япония с 16.54% от общего количества статей. Ключевое слово «голографический» использовалось в 62.55% статей.

Objectives

Objectives. Snapshots of data can be stored in a holographic medium at varying depths. Data can be written via a spiral data channel in spinning holographic media in the form of circular disks like CDs or DVDs. This data is then read by shining a reference beam through the refraction following writing. However, holographic storage is distinct from CD/DVD media in the sense that information is encoded in all three dimensions. Two-dimensional data is written using a single laser beam that spirals around the material. Prototype holographic storage solutions use minuscule cones formed by individual snapshots or pages to store one million pixels. As compared with magnetic disks and tapes, which have a finite lifespan of 50 years at most, the longevity and dependability of optical media storage is advantageous for long-term archiving. Holographic technology allows for the portability of data-intensive media such as broadcast or high-definition video. However, the shelf life of holographic media remains low due to its sensitivity to light. The primary goals of most storage devices are more storage space and faster data transport. Holographic storage devices have the potential to outperform traditional optical storage devices both in terms of capacity and performance. The present paper aims to evaluate the current international research trends in Holographic Data Storage (HDS) and produce a graphical mapping of co-authorship and countries.

Methods

Methods. The major outputs of the dataset were authors, document type, publication, institution, nation, and citations. After exporting 1052 data sources, HistCite software was used to analyze the citations; visualization mapping was carried out using VOSviewer software and R programming language for the analysis of the authorcountry-title association on Holographic Storage Devices.

Results

Results. The most prominent authors, papers, journals, organizations, and nations in the field of HDS were identified in HistCite. Then, four clusters were investigated using VOSviewer based on author keywords, citation collaboration networks among different organizations, countries, and the HDS co-authorship network.

Conclusions

Conclusions. During the study period from 2000–2020 (21 years), 4636 authors contributed to 1052 publications. The highest number of publications was in 2009, with a linear adjustment of R2 = 0.0136. The most prolific author, Lee J., published 3.14% of the articles on this subject. In terms of country distribution, Japan took first-place ranking, claiming 16.54% of the total number of articles. The “holographic” keyword was used in 62.55% of the articles.

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The authors declare that there are no conflicts of interest present.