Fixed bibtex

Author: janakarana

paper/paper.bib

@@ -32,6 +32,7 @@ @book{Bohren1983
 	year         = 1983,
 	publisher    = {John Wiley and Sons, Inc.},
 	address      = {New York}
+	isbn         = {047105772X}
 }
 @article{Chalut2008,
 	title={Application of Mie theory to assess structure of spheroidal scattering in backscattering geometries},
@@ -81,11 +82,12 @@ @article{Gelebart1996
 @book{Goody1989,
 	title        = {{Atmospheric Radiation: Theoretical Basis}},
 	author       = {Goody, R. M. and Yung, Y. L.},
-	year         = 1989,
+	year         = 1995,
 	publisher    = {Oxford University Press},
 	address      = {Oxford},
-	pages        = 544,
+	pages        = 540,
 	edition      = {2nd Edition}
+	issn         = {978-0195356106}
 }
 @article{Horvath2009,
 	title        = {Light scattering: Mie and more – Commemorating 100 years of Mie's 1908 publication},
@@ -152,10 +154,9 @@ @misc{MieScattering
 @article{Mourant1997,
 	author = {Judith R. Mourant and Tamika Fuselier and James Boyer and Tamara M. Johnson and Irving J. Bigio},
 	journal = {Appl. Opt.},
-	keywords = {Absorption coefficient; Elastic scattering; Mie scattering; Optical properties; Refractive index; Turbid media},
 	pages = {949--957},
 	publisher = {Optica Publishing Group},
-	title = {Predictions and measurements of scattering and absorption over broadwavelength ranges in tissue phantoms},
+	title = {Predictions and measurements of scattering and absorption over broad wavelength ranges in tissue phantoms},
 	volume = {36},
 	number = {4},
 	month = {Feb},
@@ -217,13 +218,13 @@ @article{Schmitt1998
 	doi          = {10.1364/AO.37.002788},
 	issn         = {0003-6935}
 }
-@book{Seinfeld1998,
+@book{Seinfeld1997,
 	author = {Seinfeld, John H. and Pandis, Spyros N.},
-	title = {Atmospheric Chemistry and Physics: From Air Pollution to Climate Change},
-	publisher = {Wiley},
+	title = {Atmospheric Chemistry and Physics: Air Pollution to Climate Change},
+	publisher = {Wiley-Interscience},
 	address = {New York},
-	year = {1998},
-	isbn = {0-471-17815-2}
+	year = {1997},
+	isbn = {0471178160}
 }
 @article{Sumlin2018,
 	title        = {Retrieving the aerosol complex refractive index using PyMieScatt: A Mie computational package with visualization capabilities},
@@ -257,7 +258,7 @@ @article{Tien1987
 }
 @book{VandeHulst1957,
 	title        = {{Light scattering by small particles}},
-	author       = {van de Hulst, H. C.},
+	author       = {H. C. van de Hulst},
 	year         = 1957,
 	publisher    = {John Wiley and Sons Inc.},
 	address      = {New York},

paper/paper.md

@@ -47,7 +47,7 @@ Mie theory is derived from Maxwell's equations and provides a comprehensive fram
 
 While numerous Mie simulation packages are available (many of which are listed on [SCATTPORT.org](https://scattport.org/index.php/light-scattering-software) and [Wikipedia](https://en.wikipedia.org/wiki/Codes_for_electromagnetic_scattering_by_spheres)), they generally fall into two categories: older, established codes focusing on computational efficiency [@Wiscombe1980; @Bohren1983], and newer, object-oriented libraries typically hosted on version-control platforms [@Sumlin2018; @PoinsinetdeSivry-Houle2023; @Prahl_mie; @MieScattering]. Although both categories provide robust computational engines, they usually demand significant programming proficiency. This requirement creates a barrier for experimentalists, clinical scientists, and educators who need these analytical capabilities but may lack the specialized coding expertise to integrate such libraries into their workflows.
 
-`MieSimulatorGUI` bridges this gap by providing an intuitive, cross-platform desktop application that computes and fits scattering parameters for monodisperse and polydisperse distributions without any coding. Unlike standard implementations, it supports heterogeneous polydispersity, allowing users to assign bin-specific complex refractive indices via custom data inputs, a feature often absent in simplified GUI tools. The tool facilitates high-impact use cases such as biomedical optics [@Mourant1997; @Wang2005; @Jacques2013] and atmospheric research [@Seinfeld1998; @Teri2022], where users can define complex particle configurations and directly fit spectrally-varying reduced scattering coefficients. By integrating a powerful C/C++ computational engine with intuitive [Qt](https://www.qt.io/) interface, `MieSimulatorGUI` offers accessible, yet powerful Mie theory computations, facilitating both streamlined research analysis and interactive pedagogical demonstrations. 
+`MieSimulatorGUI` bridges this gap by providing an intuitive, cross-platform desktop application that computes and fits scattering parameters for monodisperse and polydisperse distributions without any coding. Unlike standard implementations, it supports heterogeneous polydispersity, allowing users to assign bin-specific complex refractive indices via custom data inputs, a feature often absent in simplified GUI tools. The tool facilitates high-impact use cases such as biomedical optics [@Mourant1997; @Wang2005; @Jacques2013] and atmospheric research [@Seinfeld1997; @Teri2022], where users can define complex particle configurations and directly fit spectrally-varying reduced scattering coefficients. By integrating a powerful C/C++ computational engine with intuitive [Qt](https://www.qt.io/) interface, `MieSimulatorGUI` offers accessible, yet powerful Mie theory computations, facilitating both streamlined research analysis and interactive pedagogical demonstrations. 
 
 # Main Features