Aruna Sivaram

Aruna Sivaram


Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 July 2011 in Preventive Veterinary Medicine
Verified
Journal Article
Closed access
YGYogesh K Gurav
Yogesh K Gurav
CRChandrashekhar G. Raut
Chandrashekhar G. Raut
Pragya Dhruv YadavPragya Dhruv Yadav
Pragya Dhruv Yadav
Babasaheb Vishwanath TandaleBabasaheb Vishwanath Tandale
Babasaheb Vishwanath Tandale
ASAruna Sivaram
Aruna Sivaram
AMAkhilesh C. Mishra
Akhilesh C. Mishra

3 May 2012 in Intervirology
Verified
Journal Article
Closed access
CRC.G. Raut
C.G. Raut
Pragya Dhruv YadavPragya Dhruv Yadav
Pragya Dhruv Yadav
JTJonathan Towner
Jonathan Towner
BABrian R. Amman
Brian R. Amman
BEB.R. Erickson
B.R. Erickson
DMD.T. Mourya
D.T. Mourya
Surveillance work was initiated to study the presence of highly infectious diseases like Ebola-Reston, Marburg, Nipah and other possible viruses that are known to be found in the bat species and responsible for causing diseases in humans. A novel adenovirus was isolated from a common species of fruit bat (Rousettus leschenaultii) captured in Maharashtra State, India. Partial sequence analysis of the DNA polymerase gene shows this isolate to be a newly recognized member of the genus Mastadenovirus (family Adenoviridae), approximately 20% divergent at the nucleotide level from Japanese BatAdV, its closest known relative.

12 October 2010 in Parasites & Vectors
Verified
Journal Article
Open access
PDF file
ASAruna Sivaram
Aruna Sivaram
PBPradip V Barde
Pradip V Barde
MGMangesh D Gokhale
Mangesh D Gokhale
DSDinesh K Singh
Dinesh K Singh
DMDevendra T Mourya
Devendra T Mourya
Background: Densonucleosis viruses are the etiological agents of insect's disease. We have reported the isolation of densovirus from India and its distribution among the natural populations of Aedes aegypti mosquitoes across the country. Since densonucleosis virus persistently infects mosquito populations, and is demonstrated to negatively affect multiplication of dengue virus in Aedes albopictus, it would be interesting to study if this virus has a role in determining the susceptibility of the vector mosquito Ae. aegypti to chikugunya virus. Methods: Mosquito cell lines and adult Ae. aegypti mosquitoes infected with densovirus were superinfected with Chikungunya virus and both the viruses were quantitated by determining their genomic copy number by real time amplification. Comparison was made between the log of genomic copy numbers of the viruses in the presence and absence of each other. Results: The log of copy number of the viruses did not vary due to co-infection. Even though the RNA copy number of chikungunya virus increased over the period of time, no change was observed in the RNA copy number between the control and the co-infected group on any given day. Similarly, DNA copy number of densovirus also remained unchanged between the control and the co-infected groups. Conclusion: Chikungunya virus neither stimulates the replication of densovirus nor is its own replication suppressed due to co-infection. Ae. aegypti mosquitoes with densovirus infection were as susceptible to infection by chikungunya virus as the uninfected mosquitoes.

9 September 2023 in International Journal of Biological Macromolecules
Verified
Journal Article
Closed access
AKAmol Kahandal
Amol Kahandal
SCSanyukta Chaudhary
Sanyukta Chaudhary
SMSaakshi Methe
Saakshi Methe
PNPratik Nagwade
Pratik Nagwade
ASAruna Sivaram
Aruna Sivaram
CTChandrakant K. Tagad
Chandrakant K. Tagad

31 March 2009 in Intervirology
Verified
Journal Article
Open access
PDF file
ASAruna Sivaram
Aruna Sivaram
PBP.V. Barde
P.V. Barde
SKS.R.P. Kumar
S.R.P. Kumar
Pragya Dhruv YadavPragya Dhruv Yadav
Pragya Dhruv Yadav
MGM D Gokhale
M D Gokhale
DMD.T. Mourya
D.T. Mourya
Objectives: Mosquito densonucleosis viruses (DNVs) are known to persistently infect the insect cell line and mosquito population in nature, causing mortality in mosquitoes. Here we report the isolation and characterization of a DNV from Aedes aegypti and its distribution among different Ae. aegypti populations from India. Methods: We screened Ae. aegypti mosquito populations from different states of India by PCR. Virus isolation and purification was performed using a cesium chloride gradient from a positive mosquito colony. Characterization of this isolate was carried out by electron microscopy, Western blot and sequencing. Results: Electron microscopy showed the presence of parvovirus-like particles, and Western blot showed the presence of 2 viral proteins of 40 and 41 kDa. A total of 3,776 bases of genome were sequenced, which included a 3′UTR of 128 bases, a coding region of 3,507 bases and a 5′UTR of 141 bases. Three open reading frames (ORFs) were identified and characterized. The NIVDNV genome showed 95% similarity with Culex pipiens pallens DNV and 93% similarity with Ae. aegypti DNV. Conclusion: Phylogenetic analysis of all 3 ORFs showed that this new isolate falls in the lineage of Brevidensovirus along with other mosquito DNVs.

18 February 2022 in BioNanoScience
Verified
Journal Article
Closed access
PDF file
NPNayana Patil
Nayana Patil
AKAnushka Kelkar
Anushka Kelkar
ASAruna Sivaram
Aruna Sivaram