scispace - formally typeset
S

S. Lokanathan

Researcher at University of Rajasthan

Publications -  54
Citations -  751

S. Lokanathan is an academic researcher from University of Rajasthan. The author has contributed to research in topics: Charged particle & Nucleon. The author has an hindex of 16, co-authored 54 publications receiving 732 citations.

Papers
More filters
Journal ArticleDOI

Scaled-factorial-moment analysis of 200A-GeV sulfur+gold interactions.

TL;DR: S+Au interactions at 200{ital A} GeV were observed using emulsion chambers, permitting measurement of pseudorapidities in the central region with precision {similar to}0.01 unit, and scaled-factorial-moment analyses are extended to bin sizes smaller than those accessible to other fixed-target experimental techniques.
Journal ArticleDOI

Limiting fragmentation in oxygen-induced emulsion interactions at 14.6, 60, and 200 GeV/nucleon

TL;DR: Comparisons with the fritiof model reveal that the picture of fragmenting strings successfully describes the observed data on limiting fragmentation behavior in both the target and projectile fragmentation regions for a central as well as for a minimum-bias sample.
Journal ArticleDOI

Scaling properties of charged particle multiplicity distributions in oxygen induced emulsion interactions at 14.6, 60 and 200 A GeV

TL;DR: In this article, the multiplicity distributions of shower particles are measured in inclusive inelastic oxygen emulsion interactions and scaling is observed in the normalized variable ns/〈ns〉 for 14.6, 60 and 200 AGeV.
Journal ArticleDOI

Complex analysis of gold interactions with photoemulsion nuclei at 10.7 GeV/nucleon within the framework of cascade and FRITIOF models

Journal ArticleDOI

Rapidity densities and their fluctuations in central 200 A GeV 32S interactions with Au and Ag, Br nuclei EMU01 collaboration

M. I. Adamovich, +90 more
- 24 Aug 1989 - 
TL;DR: In this paper, the pseudo-rapidity density distributions of shower particles were measured in central inelastic S + Au and S + Ag,Br inter-actions, and the extracted maximum energy densities, while being higher for Au than for Ag, were found to be similar to those obtained for oxygen emulsion interactions.