ArticlePDF AvailableLiterature Review

An Innovative User-friendly Platform for Covid-19 Pandemic Databases and Resources

Authors:
  • S khan lab

Abstract and Figures

Background COVID-19 is a global outbreak of a disease from a new virus, occurred in Wuhan China in December 2019. Several databases have been published on this pandemic, but the research community still needs an easy way to get comprehensive information on COVID-19. Objectives COVID-19 pandemic database (CO-19 PDB) aims to provide wonderful insights for COVID-19 researchers with the well-gathered of all the COVID-19 data to one platform, which is a global challenge for the research community these days. Methods We gathered 59 updated databases since December-2019 until May 2021 and divided them into six categories: digital image database, genomic database, literature database, visualization tools database, chemical structure database, and social science database. These categories focus on taking number of functions from the images, information from gene sequences, updates from relevant papers, essays, reports, articles, and books, the data or information in the form of maps, graphs, and charts, information of bonds between atoms, and updates about events of the physical and social environment, respectively. Results Users can search the information of interest in two ways including typing the name of the database in the search bar or by clicking the right category directly. Computer languages such as CSS, PHP, HTML, Java, etc. are utilized to construct CO-19 PDB.
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Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
Available online 26 September 2021
2666-9900/© 2021 The Authors. Published by Elsevier B.V. This is an open access article under the CC BY-NC-ND license
(http://creativecommons.org/licenses/by-nc-nd/4.0/).
An innovative user-friendly platform for Covid-19 pandemic databases
and resources
Shahid Ullah
b
,
*
, Anees Ullah
d
, Wajeeha Rahman
b
, Farhan Ullah
b
, Sher Bahadar Khan
c
,
Gulzar Ahmad
b
, Muhammad Ijaz
b
, Tianshun Gao
a
,
**
a
Research Center, The Seventh Afliated Hospital of Sun Yat-sen University, Shenzhen, Guangdong, China
b
S Khan Lab Mardan, Khyber Pakhtunkhwa, Pakistan
c
Department of Animal Health, The University of Agriculture, Peshawar, Pakistan
d
Kyrgyz State Medical Academy (KSMA), Kyrgyzstan
ARTICLE INFO
Keywords:
CO-19 PDB
COVID-19
Digital image
Genomic
Chemical structure
ABSTRACT
Background: The current coronavirus disease-19 (COVID-19) is caused by severe acute respiratory syndrome
coronavirus 2 (SARS-CoV-2) is a global outbreak of a disease from a new coronavirus. Several databases have
been published on this pandemic, but the research community still needs an easy way to get comprehensive
information on COVID-19.
Objectives: COVID-19 pandemic database (CO-19 PDB) aims to provide wonderful insights for COVID-19 re-
searchers with the well-gathered of all the COVID-19 data to one platform, which is a global challenge for the
research community these days.
Methods: We gathered 59 updated databases since December-2019 until May 2021 and divided them into six
categories: digital image database, genomic database, literature database, visualization tools database, chemical
structure database, and social science database. These categories focus on taking number of functions from the
images, information from gene sequences, updates from relevant papers, essays, reports, articles, and books, the
data or information in the form of maps, graphs, and charts, information of bonds between atoms, and updates
about events of the physical and social environment, respectively.
Results: Users can search the information of interest in two ways including typing the name of the database in the
search bar or by clicking the right category directly. Computer languages such as CSS, PHP, HTML, Java, etc. are
utilized to construct CO-19 PDB.
Conclusion: This article attempts to compile up-to-date appropriate COVID-19 datasets and resources that have
not been compiled and given in such an accessible and user-friendly manner. As a result, the CO-19 PDB offers
extensive open data sharing for both worldwide research communities and local people. Further, we have
planned future development of new features, that will be awesome for future study.
Introduction
Background
COVID-19 pandemic broke out in the end of the year 2019 [1], and
spread to 211 countries quickly [2,3]. It is caused by a novel virus
known as severe acute respiratory syndrome coronavirus 2. (SAR-
S-CoV-2) [4], which is responsible for the violent (COVID-19) pandemic
[5]. Researchers recently clearly stated that COVID-19 patients getting
angiotensin-converting-enzyme inhibitors (ACEI) could experience
better health [5,6]. The COVID-19 vaccine, considered to be an impor-
tant prophylactic safety and prevention technique, is being
* Corresponding author at: S Khan Lab, Mardan, KPK, Pakistan, PhD From Huazhong University of Science and technology, Wuhan, China. Postdoctoral. Chinese
academy of Science & Shenzhen University Institute of Low-dimensional Materials Genome Initiative, College of Chemistry and Environmental Engineering,
Shenzhen, Guangdong 518060, P. R. China
** Corresponding author at: Currently working as an associate Prof in. Research Center, The Seventh Afliated Hospital of Sun Yat-sen University, Shenzhen,
Guangdong, China PhD: Department of Bioinformatics & Systems Biology, Collage of life science and technology Huazhong University of Science and Technology
(HUST) Wuhan 430074, China
E-mail addresses: dridechina@gmail.com, drsbioch@yahoo.com, drskbioch@gmail.com (S. Ullah).
Contents lists available at ScienceDirect
Computer Methods and Programs in Biomedicine Update
journal homepage: www.sciencedirect.com/journal/computer-methods-
and-programs-in-biomedicine-update
https://doi.org/10.1016/j.cmpbup.2021.100031
Received 18 May 2021; Received in revised form 18 September 2021; Accepted 24 September 2021
Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
2
manufactured in about 90 institutions around the world [2]. Previously
we have published several databases on different research areas in
well-cited international journals, such as, databases on phosphorylation
animal and fungi (DBPAF), in Scientic Report journal [7], a database of
circadian genes in eukaryotes (CGDB), in Nucleic Acids Research journal
[8], database for protein phosphorylation sites in prokaryotes (dbPSP),
in Oxford Database journal [9], Emergency Data Base of COVID-19
(EDBCO-19) [10], Database of plant Research (DBPR) [11] and so on.
Taken together, we have provided a huge platform named HABDSK to
scientic community in the form of eleven databases of a different
research eld that can be freely accessed [12] with timely updates.
Aim of the study
This article attempts to gather all the knowledge needed for the
COVID-19 pandemic worldwide by analyzing papers and databases that
have been published by a recent global scientists, Like the regular
publishing of articles reported in the Centers for Disease Control and
Prevention (CDC) database [13], statistics are reported by World Health
Organization (WHO) [14], and several other databases have been online
on the COVID-19 pandemic in various study areas and facets of
COVID-19, each and every one has its own information and importance,
however, in this crucial time, we have gathered all this data on a friendly
and faster-nding platform for the global scientic community, and
have grouped them into 6 categories so researchers can query for the
knowledge they need in a short time. In short, we have provided a new
way of searching in the form of a new feature (Fig. 2A), and will be
useful for future research.
Materials and methods
Construction of database
CO-19 PDB, data is collected and constructed on the friendly nding
way (Fig. 1), many keywords have been used for searching the data such
as; COVID-19 database, Corona database, Virus database, etc. in several
searching engines like Google, Google Scholar and especially PubMed.
Computer programming platforms have been used in the construction of
the database. Finally, CO-19 PDB is available for researchers to be
operated easily.
Use of the CO-19 PDB
Our database offers two ways to search. Users can search by clicking
on the categories that lead to the proper table of the categories with
small description which is shown in the (Fig. 2A). Further clicking will
lead to the ofcial link with a small description of the needed query,
shown in (Fig. 2B), furthermore clicking will give the new window of
needed database which we have placed the tickmark sign as an example.
In addition, insert the required database name in the search bar that is
mentioned at the top of the main page and has been highlighted in the
(Fig. 2C).
Results
Statistic of the database
In this work, we have focused on COVID-19 databases, and have
Fig. 1. The data collection and construction procedure of the CO-19 PDB.
S. Ullah et al.
Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
3
collected all the database from December 2019 till May 2021, (Fig. 3A)
is the growth of monthly wise databases, which show the tremendous
growth with the passage of time, while (Fig. 3B) is the category wise
growth of databases, in which, the literature category shown the highest
value, due to vast amount of globally published literature in COVID-19
pandemic, in (Fig. 3C) the clear percentile of the data is shown, which
can be of great help to further researchers, (Fig. 3D) depicts the overall
number of new cases, while (Fig. 3E) depicts the overall number of
deaths from December 2019 till 5 May 2021, in which the United States
and India are at the top, and (Fig. 3F) depicts the top 6 conrmed cases
by area, with America and Europe at the top. For more updated infor-
mation and research we have provided this separate platform. It is to be
noted, that all the redundant, disabled, and non-assessable database
links have been updated or removed and provided new and updated
COVID-19 databases which are in the form of database and table,
(Table S1).
Previous published work and development of new features
Previously many articles have been published in well-known jour-
nals [1518](Tab: 1), which have collected the databases of different
organisms and different research area, e.g. Biological databases for
human research [19] which have collected 74 human databases, Online
Databases for Taxonomy and Identication of Pathogenic Fungi and
Proposal for a Cloud-Based Dynamic Data Network Platform [20]have
collected 24 fungi databases, so that a well comprehensive COVID-19
database is also needed for the research community to sort and save
all the COVID-19 data for future researchers [21], because nowadays
database of COVID-19 has been an integral part of modern biology.
Further, published work has collected the databases and has presented
them in the form of a Table, while in our work we have provided the
table as well as the database of the databases, named COVID-19 PD, the
Comparison is given in (Table 1). Furthermore, to make easier and
clearer, we have categorized the databases on the basis of their prop-
erties such as, digital image database, genomic database, literature
database, visualization tools database, chemical structure database, and
social science database, and have planned future development of new
features, which are shown in (Fig. 2A). that have not been provided
before.
Fig. 2. The usage and statistic of CO-19 PDB, (A) Searching by clicking the name of the category. (B) Can search the name of needed database. (C) The percentage of
the collected data.
S. Ullah et al.
Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
4
Discussion
CO-19 PDB classication
The classication of various viruses is based on the selection and
contrast displayed by the viruses, them to distinguish [23] based on
sequence similarity [24], the molecular structure of the genome [25],
pathogenicity [26], structural similarities [27,28] and host range [29].
Huge research has been done on different viruses and has been saved in
the form of published literature or databases, for an easy access and
using this huge data, several databases have been released previously
such as NIH, COVID-19 Data Portal and EDBCO-19. Currently on
COVID-19 Pandemic, number of databases have been published, but a
simplied and easier-to-use research is still needed for the conformant of
the scientic community, so we have gathered revised datasets and
grouped them into several categories based on their external and in-
ternal structure and function as described below, that can be access
through this link https://www.habdsk.org/co-19pdb.php
Fig. 3. The statistic of CO-19 PDB, (A) Monthly wise growth, (B) Category-wise growth, (C) The percentage of the collected data, (D) Total new cases, (E) Total
death, (F) Top 6 conrmed cases by region.
S. Ullah et al.
Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
5
Table 1
Comparison of CO-19 PDB with other published work.
Authors Year Category Form of DB. No Journal name Ref.
Our current work 2021 COVID-19 DB+Table 59 ……. .
Rigden and Fern´
andez 2021 2021 Covid+other Table 89 Nucleic Acids Res. [22]
Rigden and Fern´
andez 2020 2020 Nucleic acid Table 70 Nucleic Acids Res. [18]
Xu 2012 2012 Protein Table 121 Curr. Protoc. Mol. Biol. [15]
Zou, Ma et al. 2015 2015 Human Table 74 Genomics, Proteomics Bioinf. [19]
Harper 1994 1994 DNA+Protein Table 50 Curr. Opin. Biotechnol. [17]
Fig. 4. The main pages of some common using databases in COVID-19 pandemic.
S. Ullah et al.
Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
6
Chemical structure database
A chemical database contains information about the arrangement of
chemical bonds between atoms in a molecule, ion, or radical with
several atoms, specically which atoms are chemically bonded to other
atoms in what kind of chemical bond [30].There is a variety of useful
chemical knowledge and freely accessible libraries for the usage of
research scientists. Such as knowledge related to the chemical structure
[31] (Fig. 4A) shown COV3D is a weekly modied database that pro-
vides a detailed annotated collection of coronavirus protein structures
and their identication by antibodies and other molecules.
Visualization tools database
Visualization tool database contains a graphical representation of
any data or information. Visual elements such as maps, graphs, and
charts are some of the few data visualization tools that provide the
audience with an easy and accessible way of understanding the repre-
sented information. Using Visualization tools, the COVID-19 data and
information can be read and generated easily and quickly [32].(Fig. 4B)
shown MIDAS is a global network of scientists who developed and
applied theoretical, methodological, and mathematical models to help
explain the complexities of infectious diseases in terms of pathogenesis,
dissemination, efcient management methods, and forecasting.
Genomic database
Genomics is an interdisciplinary biological eld that focuses on the
structure, work, development, and edition of the genome. It is a com-
plete set of DNA of an organism including all its genes [33]. Mostly it
includes gene sequencing and analysis by using high-volume DNA
sequencing and bioinformatics to evaluate the role and composition of
whole genomes [34]. (Fig. 4C) shown COVID-19 genomic sequence
database is a consolidated sequence database for all records containing
sequences associated with the novel corona virus (SARS-CoV-2) that
have been sent to the Sequence Read Archive (SRA) at the National
Center for Biotechnology Information.
Social science database
Social science is the study of the physical and modern sphere. It is
basically an analysis of international relations or the scientic study of
human culture. Simply, it deals with the humans-their development,
behavior, relationship, and resources they use and many kinds of or-
ganizations such as family, school, workplace, etc. it has brought
awareness among the people about our environments and the incidents
that happened in the past [35]. (Fig. 4D) shown main page named
Outbreak.info is a web initiative that seeks to collect COVID-19 and
SARS-CoV-2 epidemiology and genomic evidence, as well as published
research and other materials.
Digital image database
A digital picture is consisting of graphic components, also known as
pixels, each with a limited, distinct quantity of numerical representation
due to its strength or gray color from its two-dimensional functions [36].
A digital image has the potential to improve a number of functions, such
as the understanding of information for low-contrast lms, the elec-
tronic transfer of images to remote installations, and the storage space
requirements for archiving once treatment has been completed [37].
(Fig. 4E) shown, the cancer image archive (TCIA) is a service that
de-identies and hosts a large archive of medical image of cancer, that
plays an important role in Covid-19 pandemic.
Literature database
The scientic literature contains publications that report a novel,
experimental and theoretical work in the natural and social sciences,
and is often abbreviated as literature within a scientic eld [38].
Literature Database is an on-line, searchable bibliographic database of
selected papers, essays, report, articles, and books relevant to the study
of arts and cultural policy [39]. (Fig. 4F) shown LitCovidis a curated
literature hub for monitoring up-to-date research knowledge about the
newly discovered Corona virus in 2019. It is the most extensive resource
on the topic, providing unied access to 125674 related PubMed
articles.
Conclusion
People around the world are widely infected with COVID-19. Global
scientists are working on COVID-19 and nearly 90 well-known research
institutions are on record. Computational work has been done, and
many datasets have been released and updated on a regular basis.
Therefore, we have created a database of databases that contains all
updated COVID-19 data on an easy platform and is accessible to all
global researchers to aid in their research and study. To prevent wastage
of time and to make it easier to nd, we have classied the updated data
into six categories according to their physical and chemical properties
and have two ways of accessing to it, users can search by clicking on the
category or enter the name of the database they need in the search bar.
In short, the goal of this article is to put together up-to-date applicable
COVID-19 datasets and resources that have not been gathered and
provided before in such an easy and friendly nding ways. As a result,
CO-19 PDB provides wide-ranging open data sharing for both global
research communities and local people.
Authors contribution
Dr. Shahid Ullah and Prof. Tianshun Gao supervised the project. Dr.
Anees Ullah, Ms. Wajeeha Rahman, Mr. Farhan Ullah, Dr. Sher Bahadar
Khan, Mr. Gulzar Ahmad, and Mr. Muhammad Ijaz collected and veri-
ed the data carefully, all authors reviewed the manuscript and agreed
to submit.
Declaration of Competing Interest
To avoid future conict, Co-19PDB database is uploaded on (http:
//www.habdsk.org/co-19pdb.php) so that we have provided some
content in this article.
Acknowledgment
To avoid future conict, CO-19 PDB database is uploaded on (http:
//www.habdsk.org/co-19pdb.php) so that we have provided some
content in this article. This project is supported by National Natural
Science Foundation of China [32100434] and Shenzhens introduction
of talents and research start-up [392020].
Supplementary materials
Supplementary material associated with this article can be found, in
the online version, at doi:10.1016/j.cmpbup.2021.100031.
References
[1] H. Li, S.M. Liu, X.H. Yu, S.L. Tang, C.K. Tang, Coronavirus disease 2019 (COVID-
19): current status and future perspectives, Int. J. Antimicrob. Agents 55 (2020),
105951, https://doi.org/10.1016/j.ijantimicag.2020.105951 https://doi.org/.
[2] L. Yang, D. Tian, W. Liu, Strategies for vaccine development of COVID-19, Sheng
Wu Gong Cheng Xue Bao (2020) 593604.
S. Ullah et al.
Computer Methods and Programs in Biomedicine Update 1 (2021) 100031
7
[3] M. Gbetuwa, U. Iqbal, RE: COVID19 impact on human behaviour in Sierra Leone,
(2020).
[4] C. Contini, M. di Nuzzo, N. Barp, A. Bonazza, R. de Giorgio, M. Tognon, S. Rubino,
The novel zoonotic COVID-19 pandemic: an expected global health concern,
J. Infect. Dev. Countries 14 (2020) 254264.
[5] J.S. Rico-Mesa, A. White, A.S. Anderson, Outcomes in patients with COVID-19
infection taking ACEI/ARB, Curr. Cardiol. Rep. 22 (2020) 14.
[6] A. Humayun, M.I. Anwar, S.S. Alam, U. Iqbal, Epidemic to Pandemic: Just a Matter
of Time, in: Proceedings, 2020, pp. 13.
[7] S. Ullah, S. Lin, Y. Xu, W. Deng, L. Ma, Y. Zhang, Z. Liu, Y. Xue, dbPAF: an
integrative database of protein phosphorylation in animals and fungi, Sci. Rep. 6
(2016) 19.
[8] S. Li, K. Shui, Y. Zhang, Y. Lv, W. Deng, S. Ullah, L. Zhang, Y. Xue, CGDB: a
database of circadian genes in eukaryotes, Nucleic Acids Res. (2016) gkw1028.
[9] Z. Pan, B. Wang, Y. Zhang, Y. Wang, S. Ullah, R. Jian, Z. Liu, Y. Xue, dbPSP: a
curated database for protein phosphorylation sites in prokaryotes, Database (2015)
2015.
[10] S. Ullah, F. Ullah, I.M. RahmanW, G. Ahmad, W. Ullah, EDBCO-19: Emergency
Data Base of COVID-19, J. Clin. Med. Res. 2 (2020) 14.
[11] S. Ullah, W. Rahman, F. Ullah, G. Ahmad, M. Ijaz, T. Gao, DBPR: DataBase of Plant
Research, (2021).
[12] J.M. KhanSA, V. Anand, K.A. Soomro, M. Junaid, Tremendous Contribution of Dr.
Shahid Ullah to Scientic Community during COVID-19 Pandemic in the Form of
Scientic Research, J. Clin. Med. Res. 2 (2020) 17.
[13] S.B. Thacker, C.D.C. Library. COVID-19 Research Articles Downloadable Database.,
(2020). https://www.cdc.gov/library/researchguides/2019novelcoronavirus/rese
archarticles.html. (Accessed September 14, 2021).
[14] World Health Organization, Global research on coronavirus disease (COVID-19).,
(2021). https://www.who.int/emergencies/diseases/novel-coronavirus-2019/glo
bal-research-on-novel-coronavirus-2019-ncov. (Accessed September 14, 2021).
[15] D. Xu, Y. Xu, Protein databases on the internet, Curr. Protocols Mol. Biol. 68 (2004)
19.4.119.4.15.
[16] G.D. Bader, M.P. Cary, C. Sander, Pathguide: a pathway resource list, Nucleic Acids
Res. 34 (2006) D504D506.
[17] R. Harper, Access to DNA and protein databases on the Internet, Curr. Opin.
Biotechnol. 5 (1994) 418.
[18] D.J. Rigden, X.M. Fern´
andez, The 27th annual Nucleic Acids Research database
issue and molecular biology database collection, Nucleic Acids Res. 48 (2020)
D1D8.
[19] D. Zou, L. Ma, J. Yu, Z. Zhang, Biological databases for human research, Genomics
Proteomics Bioinformatics 13 (2015) 5563.
[20] P.Y. Prakash, L. Irinyi, C. Halliday, S. Chen, V. Robert, W. Meyer, Online databases
for taxonomy and identication of pathogenic fungi and proposal for a cloud-based
dynamic data network platform, J. Clin. Microbiol. 55 (2017) 10111024.
[21] M.-C. Lin, U. Iqbal, Y.-C. Li, AI in medicine: big data remains a challenge, (2018).
[22] D.J. Rigden, X.M. Fern´
andez, The 2021 Nucleic Acids Research database issue and
the online molecular biology database collection, Nucleic Acids Res. 49 (2021)
D1D9.
[23] A.M.Q. King, E. Lefkowitz, M.J. Adams, E.B. Carstens, Virus taxonomy: ninth
report of the International Committee on Taxonomy of Viruses, Elsevier, 2011.
[24] P. Simmonds, Methods for virus classication and the challenge of incorporating
metagenomic sequence data, J. Gen. Virol. 96 (2015) 11931206.
[25] D. Baltimore, Expression of animal virus genomes, Bacteriol. Rev. 35 (1971) 235.
[26] W.S.M. Wold, M.G. Ison, Adenovirus, in: Fields Virology 6th Edition, Lippincott,
Williams & Wilkins, 2013: pp. 17321767.
[27] C. Büchen-Osmond, Further progress in ICTVdB, a universal virus database, Arch.
Virol 142 (1997) 17341739.
[28] C. Buechen-Osmond, M. Dallwitz, Towards a universal virus databaseprogress in
the ICTVdB, Arch. Virol. 141 (1996) 392399.
[29] J.D. Hare, H.B. Short, Manual of clinical microbiology, Am. J. Dis. Child. 129
(1975) 754.
[30] L. Gross, F. Mohn, N. Moll, P. Liljeroth, G. Meyer, The chemical structure of a
molecule resolved by atomic force microscopy, Science 325 (2009) 11101114.
[31] S.S. Jick, J.A. Kaye, C. Vasilakis-Scaramozza, L.A.G. Rodríguez, A. Ruig´
omez, C.
R. Meier, R.G. Schlienger, C. Black, H. Jick, Validity of the general practice
research database, Pharmacotherapy 23 (2003) 686689.
[32] E. Graham, Introduction: Data visualisation and the Humanities, (2017).
[33] O.M. de la S. Advisory, W.H. Organization, Genomics and world health: report of
the Advisory Committee on Health Research, World Health Organization, 2002.
[34] R.J. Ogbe, D.O. Ochalefu, O.B. Olaniru, Bioinformatics advances in genomics-a
review, Int. J. Curr. Res. Rev. 8 (2016) 511.
[35] A. Giorgi, The relationships among level, type, and structure and their importance
for social science theorizing: a dialogue with Schütz, Duquesne Stud. Phenomenol.
Psychol. 3 (1979) 8192.
[36] F. Patin, An introduction to digital image processing. online]: http://www.prog
rammersheaven.com/articles/patin,ImageProc.Pdf. (2003).
[37] R.L. Cumberlin, J.E. Rodgers, F.H. Fahey, Digital image processing of radiation
therapy portal lms, Comput. Med. Imaging Graph. 13 (1989) 227233.
[38] A.H. Renear, S. Sacchi, K.M. Wickett, Denitions of dataset in the scientic and
technical literature, Proc. Am. Soc. Inf. Sci. Technol. 47 (2010) 14.
[39] B.K. Lin, M. Clyne, M. Walsh, O. Gomez, W. Yu, M. Gwinn, M.J. Khoury, Tracking
the epidemiology of human genes in the literature: the HuGE Published Literature
database, Am. J. Epidemiol. 164 (2006) 14.
Anees Ullah: Bachelor in medicine: Kyrgyz state medical University, Email: anes-
ullah923@gmail.com
Wajeeha Rahman: done Master: now working as a researcher in S-Khan Lab Mardan KPK,
Pakistan http://www.habdsk.org/students.php, Email: wajeeharehman7464@gmail.com
Farhan Ullah: done Master: now working as a researcher in S-Khan Lab Mardan KPK,
Pakistan http://www.habdsk.org/students.php, Email: Farhanu686@gmail.com
Sher Bahadr khan: Assistant professor: Department of Animal Health, The University of
Agriculture, Peshawar, Pakistan, Email: drsher@aup.edu.pk
Gulzar Ahmad: done Master: now working as a researcher in S-Khan Lab Mardan KPK,
Pakistan http://www.habdsk.org/students.php, Email: gulzarbiotech@gmail.com
Muhammad Ijaz: done Master: now working as a researcher in S-Khan Lab Mardan KPK,
Pakistan http://www.habdsk.org/students.php, Email: m.ijaz.biotech@gmail.com
S. Ullah et al.
... As the world grapples with the multifaceted impacts of the pandemic, the need for a robust and integrated data management system becomes increasingly apparent [11]. At its core, the Comprehensive COVID-19 PDB Database serves as a meticulously designed centralized hub for collecting, managing, and disseminating critical information related to the pandemic [12]. The Global Auto-Alerts feature ensures that stakeholders, from healthcare professionals to policymakers, receive real-time updates on the latest developments. ...
... A meticulous review identified 130 databases from existing sources, with particular attention given to eliminating any dead or broken links, ensuring the database's reliability. The construction of CO-19 PDB 2.0 leveraged computer platforms including PHP, HTML, CSS, and MySQL, ensuring a robust and dynamic architecture for efficient data organization and presentation [12]. ...
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Biological databases serve as critical basics for modern research, and amid the dynamic landscape of biology, the COVID-19 database has emerged as an indispensable resource. The global outbreak of Covid-19, commencing in December 2019, necessitates comprehensive databases to unravel the intricate connections between this novel virus and cancer. Despite existing databases, a crucial need persists for a centralized and accessible method to acquire precise information within the research community. The main aim of the work is to develop a database which has all the COVID-19-related data available in just one click with auto global notifications. This gap is addressed by the meticulously designed COVID-19 Pandemic Database (CO-19 PDB 2.0), positioned as a comprehensive resource for researchers navigating the complexities of COVID-19 and cancer. Between December 2019 and June 2024, the CO-19 PDB 2.0 systematically collected and organized 120 datasets into six distinct categories, each catering to specific functionalities. These categories encompass a chemical structure database, a digital image database, a visualization tool database, a genomic database, a social science database, and a literature database. Functionalities range from image analysis and gene sequence information to data visualization and updates on environmental events. CO-19 PDB 2.0 has the option to choose either the search page for the database or the autonotification page, providing a seamless retrieval of information. The dedicated page introduces six predefined charts, providing insights into crucial criteria such as the number of cases and deaths’, country-wise distribution, ‘new cases and recovery’, and rates of death and recovery. The global impact of COVID-19 on cancer patients has led to extensive collaboration among research institutions, producing numerous articles and computational studies published in international journals. A key feature of this initiative is auto daily notifications for standardized information updates. Users can easily navigate based on different categories or use a direct search option. The study offers up-to-date COVID-19 datasets and global statistics on COVID-19 and cancer, highlighting the top 10 cancers diagnosed in the USA in 2022. Breast and prostate cancers are the most common, representing 30% and 26% of new cases, respectively. The initiative also ensures the removal or replacement of dead links, providing a valuable resource for researchers, healthcare professionals, and individuals. The database has been implemented in PHP, HTML, CSS and MySQL and is available freely at https://www.co-19pdb.habdsk.org/. Database URL: https://www.co-19pdb.habdsk.org/
... Zinc oxide nanoparticles, among metal oxide counterparts, exhibit versatile applications, encompassing disease diagnostics, drug delivery, and demonstrating antioxidant and antibacterial capabilities [15]. Salix alba, colloquially known as white willow and belonging to the Salicaceae family, boasts a medicinal history spanning 6000 years [16,17]. Salicin, identified as a prodrug present in both the leaves and bark of Salix alba, commonly known as white willow, is prominently featured in the bark extract. ...
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Background: Plant parasitic nematodes (PPNs) are considered major agriculture pests, causing significant damage to crops by directly targeting the plant root system to prevent water and nutrient uptake. One of its major species, Meloidogyne incognita, is considered a serious threat to agriculture crop production worldwide. The current study was intended to evaluate the potential of Nanoparticles synthesized from Salix alba bark extract as nematicidal agent.Methods: Phytochemical analyses of Salix alba bark extract were conducted, and nanoparticles of the same extract were synthesized and characterized using UV-vis spectroscopy, XRD (X-Ray Diffraction), SEM (Scanning Electron Microscopy) and EDX (Energy Dispersive X-ray Spectroscopy) techniques. Results: The qualitative phytochemical analysis of Salix alba bark extract revealed the presence of phenolics, flavonoids, reducing sugars, and saponins. When applied on juveniles of the plant parasitic nematode Meloidogyne incognita, the nanoparticles demonstrated a dose and time-dependent impact. After 24 hours, the highest concentration (1000 µg/ml) of nanoparticles exhibited the greatest mortality, reaching 82.2%, while the lowest concentration resulted in a mortality rate of 34.5%. Similarly, at the 48-hour mark, the highest mortality (92.2%) was observed with 1000 µg/ml of nanoparticles, whereas the lowest concentration yielded a mortality rate of 54.5%. Extending the observation period to 72 hours, the mortality rate peaked at 98.33% with the highest nanoparticle concentration (1000 µg/ml), and the lowest mortality rate was recorded at the lowest dose, amounting to 72.5%. These results underscore the dose and time-dependent efficacy of Salix alba bark-derived nanoparticles against Meloidogyne incognita. Conclusion: Our findings suggest that zinc oxide nanoparticles synthesized from Salix alba bark can be an effective agent against plant parasitic nematode Meloidogyne incognita. Further experiments are recommended to study the impact of these nanoparticles on other biotic stresses.
... The resultant genes were then divided into three groups according to their fold changes. In Group I, we have selected those genes that have (2)(3)(4)(5)(6)(7)(8)(9)(10)(11)(12)(13)(14)(15)(16)(17)(18)(19)(20), Group II and in Group III (40-140) fold change. ...
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points The Cancer Genome Atlas (TCGA) stores, shares, and analyzes extensive cancer data using high-performance computers and clouds. New bioinformatics tools facilitating analysis of large data sets to enhance cancer diagnosis, treatment, and prevention. Head and neck squamous cell carcinoma (HNSCC) accounts for 8–10% of Southeast Asia's cancer cases and is Pakistan's second most prevalent cancer. Gene expression data from TCGA (tumor genes) and GETx (normal genes) were used to study Differential Expressed Genes (DEGs). Enrichr tool and Gene Ontology (GO) enrichment analysis investigated candidate DEGs. Highly expressed Keratin family and S100A9 genes combat cellular damage, upregulated during stress. Under-expressed KRT4 and KRT13 genes instruct keratin protein production for epithelial cell structure. Poor oral hygiene and smokeless tobacco could lead to oral stress, cell damage, mutations and oncogenesis. Understanding HNSCC mechanisms aids targeted therapies and prevention strategies.
... The resultant genes were then divided into three groups according to their fold changes. In Group I, we have selected those genes that have (2)(3)(4)(5)(6)(7)(8)(9)(10)(11)(12)(13)(14)(15)(16)(17)(18)(19)(20), Group II and in Group III (40-140) fold change. ...
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Aim: Head and Neck squamous cell carcinoma (HNSCC) is the second most prevalent cancer in Pakistan. Methods: Gene expression data from TCGA and GETx for normal genes to analyze Differentially Expressed Genes (DEGs). Data was further investigated using the Enrichr tool to perform Gene Ontology (GO). Results: Our analysis identified most significantly differentially expressed genes and explored their established cellular functions as well as their potential involvement in tumor development. We found that the highly expressed Keratin family and S100A9 genes. The under-expressed genes KRT4 and KRT13 provide instructions for the production of keratin proteins. Conclusion: Our study suggests that factors such as poor oral hygiene and smokeless tobacco can result in oral stress and cellular damage and cause cancer. Plain language summary: The Cancer Genome Atlas (TCGA) holds vast cancer data processed with powerful computers and cloud tech. This sparks new bioinformatics for better cancer diagnosis, treatment, and prevention. In Southeast Asia, Head and Neck Squamous Cell Carcinoma (HNSCC) is prevalent. We used TCGA and GETx data to study gene expression. High-expression Keratin and S100A9 genes fight cellular damage under stress, while under-expressed KRT4 and KRT13 genes shape cell structure. Poor oral care and smokeless tobacco could induce cell damage, sparking cancer mutations. Unveiling HNSCC mechanisms may guide targeted treatments and preventive strategies.
... Zinc oxide nanoparticles, among metal oxide counterparts, exhibit versatile applications, encompassing disease diagnostics, drug delivery, and demonstrating antioxidant and antibacterial capabilities [15]. Salix alba, colloquially known as white willow and belonging to the Salicaceae family, boasts a medicinal history spanning 6000 years [16,17]. Salicin, identified as a prodrug present in both the leaves and bark of Salix alba, commonly known as white willow, is prominently featured in the bark extract. ...
Article
Full-text available
ackground: Plant parasitic nematodes (PPNs) are considered major agriculture pests, causing significant damage to crops by directly targeting the plant root system to prevent water and nutrient uptake. One of its major species, Meloidogyne incognita, is considered a serious threat to agriculture crop production worldwide. The current study was intended to evaluate the potential of Nanoparticles synthesized from Salix alba bark extract as nematicidal agent. Methods: Phytochemical analyses of Salix alba bark extract were conducted, and nanoparticles of the same extract were synthesized and characterized using UV-vis spectroscopy, XRD (X-Ray Diffraction), SEM (Scanning Electron Microscopy) and EDX (Energy Dispersive X-ray Spectroscopy) techniques. Results: The qualitative phytochemical analysis of Salix alba bark extract revealed the presence of phenolics, flavonoids, reducing sugars, and saponins. When applied on juveniles of the plant parasitic nematode Meloidogyne incognita, the nanoparticles demonstrated a dose and time-dependent impact. After 24 hours, the highest concentration (1000 µg/ml) of nanoparticles exhibited the greatest mortality, reaching 82.2%, while the lowest concentration resulted in a mortality rate of 34.5%. Similarly, at the 48-hour mark, the highest mortality (92.2%) was observed with 1000 µg/ml of nanoparticles, whereas the lowest concentration yielded a mortality rate of 54.5%. Extending the observation period to 72 hours, the mortality rate peaked at 98.33% with the highest nanoparticle concentration (1000 µg/ml), and the lowest mortality rate was recorded at the lowest dose, amounting to 72.5%. These results underscore the dose and time-dependent efficacy of Salix alba bark-derived nanoparticles against Meloidogyne incognita. Conclusion: Our findings suggest that zinc oxide nanoparticles synthesized from Salix alba bark can be an effective agent against plant parasitic nematode Meloidogyne incognita. Further experiments are recommended to study the impact of these nanoparticles on other biotic stresses. B www.als-journal.com/
... Antibiotic resistance develops when either antibiotics are overprescribed, or a proper/sufficient dose is not prescribed which leads to resistance towards antibiotics. Recognizing antibiotic resistance as a significant peril to human health, the World Health Organization (WHO) has acknowledged its significance [13]. The emergence of antibiotic-resistant bacteria is influenced by the environment, which holds a crucial role in this process. ...
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ackground: Increased resistance of microorganisms to commonly prescribed antibiotics has emerged as a significant hurdle in contemporary medical practice. The World Health Organization (WHO) has declared antibiotic resistance as a " major threat to public health.". In the present study, bacterial isolates were selected based on high antibiotic and heavy metal tolerance from a water sample taken from hospital sewage. Methods: Antibiotic-resistant bacteria were isolated through the disk diffusion method. Gram staining was done for morphological identification. For molecular identification, the 16s rDNA PCR amplification was done with universal primers. Results: The strain BC1 was found resistant to ampicillin (10μg/ml), and cefixime (5μg/ml). While, susceptible to kanamycin (30μg/ml), azithromycin (15μg/ml) and intermediate in response to amoxicillin (30μg/ml). The strain BC2 was resistant to ampicillin (10μg/ml), cefixime (5μg/ml) and kanamycin (30μg/ml). While, Susceptible to amoxicillin (30μg/ml), and intermediate in response to azithromycin (15μg/ml). The strains were also found resistant to heavy metals. Conclusion: The recent investigation on bacterial strains from hospital effluent found interesting candidates for understanding the AMR bacteria and developing novel active biomolecules to combat the antibiotics problem. The isolated strains could be a source of novel resistant genes however; a comprehensive molecular analysis is needed for advanced studies. B Abstract www.als-journal.com/
... In this review, anticancer properties of important metal oxide nanoparticles i.e zinc oxide nanoparticles, copper oxide nanoparticles and iron oxide nanoparticles are considered along with their mechanism of action and both in vivo and in vitro effects. We have also discussed the antiviral properties of metal oxide nanoparticles and their role in COVID treatment (S. Ullah et al., 2021). An overall graphical presentation of review is present as figure 1. Figure: 1. Metal oxide nanoparticles show promise in dual applications, acting as potential agents for cancer therapy and combating COVID-19. ...
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Nanoparticles hold potential as versatile tools for combating both cancer and COVID, offering targeted therapies and innovative diagnostic approaches. Recently, nano medicines have received much attention due to their role in the treatment of different types of cancer and viral infections. Nanoparticles can be useful for the treatment of cancer alone or along with other anticancer drugs. In the last couple of years, there has been a rapid and remarkable evolution in the field of nano medicine, primarily fueled by the urgent worldwide demand for innovative technologies aimed at offering preventive and curative solutions against coronavirus disease 2019 (COVID-19). Among different types of nanoparticles, metal and metal oxide nanoparticles have gained significant importance. Different types of therapies are used for the treatment of cancer, but one of the main problems is their side effects on normal healthy cells. Metal oxide nanoparticles have the ability to target only abnormal tumor cells and produce toxicity in them. Metal oxide nanoparticles work through different types of antitumor mechanisms including the generation of ROS, apoptosis, necrosis and interfering in signaling pathways of p53 and other related genes. In this review, we aim to provide an overview of the current knowledge and advancements regarding the potential use of metal oxide nanoparticles for the treatment of cancer and viral infections including COVID-19. We have discussed the strategies employed to enhance nanoparticle targeting, drug delivery and therapeutic efficacy for cancer therapy and viral infections. Furthermore, we have addressed the challenges, safety considerations and future directions for the use of metal oxide nanoparticles as potential therapeutic agents.
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The emergence of computer technologies and computing power has led to the development of several database systems that provide standardized access to vast quantities of data, making it possible to collect, search, index, evaluate, and extract useful knowledge across various fields. The Home of All Biological Databases (HABD) has been established as a continually expanding platform that aims to store, organize, and distribute biological data in a searchable manner, removing all dead and non‐accessible data. The platform meticulously categorizes data into various categories, such as COVID‐19 Pandemic Database (CO‐19PDB), Database relevant to Human Research (DBHR), Cancer Research Database (CRDB), Latest Database of Protein Research (LDBPR), Fungi Databases Collection (FDBC), and many other databases that are categorized based on biological phenomena. It currently provides a total of 22 databases, including 6 published, 5 submitted, and the remaining in various stages of development. These databases encompass a range of areas, including phytochemical‐specific and plastic biodegradation databases. HABD is equipped with search engine optimization (SEO) analyzer and Neil Patel tools, which ensure excellent SEO and high‐speed value. With timely updates, HABD aims to facilitate the processing and visualization of data for scientists, providing a one‐stop‐shop for all biological databases. Computer platforms, such as PhP, html, CSS, Java script and Biopython, are used to build all the databases. © 2024 Wiley Periodicals LLC.
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A coronavirus disease epidemic in 2019 (COVID-19) has occurred in Wuhan China since December 2019 and has quickly spread, now being reported in several countries, approximately 190 out of 252 nations. Screening in high-risk populations and improving measurement sensitivity can help diagnose and handle the asymptomatic infection. To know more about we have mini-review, which have the dailyand auto-notifications after 10 minutes, numerous new reported cases for period-over-period, multiple new confirmed cases for fixed-base, and the period-over-period rate of development of new confirmed cases. Particularly EDBCO-19 provides confirmed cases, number of death, recovered, number of new death, number of new cases, number of critical Cases, number of active cases anddensity of cases per meterof every country by clicking country flag, or typing the country name in given search bar, this study aims to provide an easy way to the scientific community about COVID-19 as well as for the public. Computer programming such as Java, PhP, HTML, CSS, etc. is used to build and is freely available at http: //www.habdsk.org/corona_virus.php.
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Databases of plant have been an integral part of modern biology. Enormous quantities of data are produced from plants and improving with time, many databases have been published with large amounts of data in various fields, including proteomics, transcriptomics, genomics, and metabolomics. To make it easier, a comprehensive database is needed to sort and organized all these data to one platform and give an easy and friendly finding way to plant research community, because, databases are a standard strategy for analyzing, storing, and processing such big data. Therefore, we have compiled 225 plant databases on a single platform and grouped them into 5 categories on the basis of various typescripts, such as the Protein, DNA, RNA, Pathway and Expression database, which can be indexed by clicking on the name of the category or by clicking on the picture expression or directly searching in the specified search bar in the database. DBPR is a comprehensive plant resource database that is available on https://www.habdsk.org/dbpr.php . Computer platform such as PHP, HTML, CSS, and JavaScript has been used to build and will be updated timely.
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The 2021 Nucleic Acids Research database Issue contains 189 papers spanning a wide range of biological fields and investigation. It includes 89 papers reporting on new databases and 90 covering recent changes to resources previously published in the Issue. A further ten are updates on databases most recently published elsewhere. Seven new databases focus on COVID-19 and SARS-CoV-2 and many others offer resources for studying the virus. Major returning nucleic acid databases include NONCODE, Rfam and RNAcentral. Protein family and domain databases include COG, Pfam, SMART and Panther. Protein structures are covered by RCSB PDB and dispersed proteins by PED and MobiDB. In metabolism and signalling, STRING, KEGG and WikiPathways are featured, along with returning KLIFS and new DKK and KinaseMD, all focused on kinases. IMG/M and IMG/VR update in the microbial and viral genome resources section, while human and model organism genomics resources include Flybase, Ensembl and UCSC Genome Browser. Cancer studies are covered by updates from canSAR and PINA, as well as newcomers CNCdatabase and Oncovar for cancer drivers. Plant comparative genomics is catered for by updates from Gramene and GreenPhylDB. The entire Database Issue is freely available online on the Nucleic Acids Research website (https://academic.oup.com/nar). The NAR online Molecular Biology Database Collection has been substantially updated, revisiting nearly 1000 entries, adding 90 new resources and eliminating 86 obsolete databases, bringing the current total to 1641 databases. It is available at https://www.oxfordjournals.org/nar/database/c/.
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An epidemic of acute respiratory syndrome in humans, which appeared in Wuhan, China in December 2019, was caused by a novel coronavirus (SARS-CoV-2). This disease was named as "Coronavirus Disease 2019" (COVID-19). SARS-CoV-2 was first identified as an etiological pathogen of COVID-19, belonging to the species of severe acute respiratory syndrome-related coronaviruses (SARSr-CoV). The speed of both the geographical transmission and the sudden increase in numbers of cases is much faster than SARS and Middle East respiratory syndrome (MERS). COVID-19 is the first global pandemic caused by a coronavirus, which outbreaks in 211 countries/territories/areas. The vaccine against COVID-19, regarded as an effective prophylactic strategy for control and prevention, is being developed in about 90 institutions worldwide. The experiences and lessons encountered in the previous SARS and MERS vaccine research can be used for reference in the development of COVID-19 vaccine. The present paper hopes to provide some insights for COVID-19 vaccines researchers.
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18 years ago, in 2002, the world was astonished by the appearance of Severe Acute Respiratory Syndrome (SARS), supported by a zoonotic coronavirus, called SARS-CoV, from the Guangdong Province of southern China. After about 10 years, in 2012, another similar coronavirus triggered the Middle East Respiratory Syndrome (MERS-CoV) in Saudi Arabia. Both caused severe pneumonia killing 774 and 858 people with 8700 cases of confirmed infection for the former, and 2494 for the latter, causing significant economic losses. 8 years later, despite the MERS outbreak remaining in certain parts of the world, at the end of 2019, a new zoonotic coronavirus (SARS-CoV-2) and responsible of coronavirus Disease (COVID-19), arose from Wuhan, Hubei Province, China. It spread rapidly and to date has killed 3,242 persons with more than 81,000 cases of infection in China and causing over 126,000 global cases and 5,414 deaths in 166 other countries around the world, especially Italy. SARS-CoV-2 would seem to have come from a bat, but the intermediate reservoir continues to be unknown. Nonetheless, as for SARS-CoV and MERS CoV, the Spillover effect linked to animal-human promiscuity, human activities including deforestation, illegal bush-trafficking and bushmeat, cannot be excluded. Recently, however, evidence of inter-human only transmission of SARS-CoV-2 has been accumulated and thus, the outbreak seems to be spreading by human-to-human transmission throughout a large part of the world. Herein we will provide with an update on the main features of COVID-19 and suggest possible solutions how to halt the expansion of this novel pandemic.