Karen Lozano

Dr. Karen Lozano

orcid

Research Focus & Metrics

Academic Career Length

27Years (2000-Present)

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

Representative Publications

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22 July 2004 in Advanced Functional Materials
Verified
Journal Article
Closed access
PDF file
JZJ. Zhu
J. Zhu
HPH. Peng
H. Peng
FRFernando Rodriguez-Macias
Fernando Rodriguez-Macias
JMJ. L. Margrave
J. L. Margrave
VKV. N. Khabashesku
V. N. Khabashesku
EBE. V. Barrera
E. V. Barrera

27 June 2003 in Journal of Applied Polymer Science
Verified
Journal Article
Closed access
PDF file
MSM. L. Shofner
M. L. Shofner
Karen LozanoKaren Lozano
Karen Lozano
FRFernando Rodriguez-Macias
Fernando Rodriguez-Macias
EBE. V. Barrera
E. V. Barrera

1 November 2010 in Materials Today
Verified
Journal Article
Open access
KSKamal Sarkar
Kamal Sarkar
CGCarlos Gomez
Carlos Gomez
SZSteve Zambrano
Steve Zambrano
MRMichael Ramirez
Michael Ramirez
EHEugenio de Hoyos
Eugenio de Hoyos
Karen LozanoKaren Lozano
Karen Lozano
A new process called Forcespinning™ has been developed to make nanofibers from a wide range of materials. This new method uses centrifugal force, rather than electrostatic force as in the electrospinning process. The Forcespinning™ method uses either solutions or solid materials that are solution or melt spun into nanofibers. Key parameters to control the geometry and morphology of the nanofibers include rotational speed of the spinneret, collection system and temperature. Orifices of the spinneret can have arbitrary geometric shapes to provide corresponding cross-section of nanofibers. The Forcespinning™ method has been successfully used to make nanofibers of poly-ethylene oxide, poly-lactic acid, bismuth, polypropylene, acrylonitrile-butadiene-styrene, polyvinyl pyrrolidone, and polystyrene among others.

1 May 2005 in Composites Part A: Applied Science and Manufacturing
Verified
Journal Article
Closed access
SYShuying Yang
Shuying Yang
Karen LozanoKaren Lozano
Karen Lozano
ALAzalia Lomeli
Azalia Lomeli
HFHeinrich D. Foltz
Heinrich D. Foltz
RJRobert Jones
Robert Jones

1 June 2007 in Composites Science and Technology
Verified
Journal Article
Closed access
JZJ Zhu
J Zhu
AIA Imam
A Imam
RCR Crane
R Crane
Karen LozanoKaren Lozano
Karen Lozano
VKV Khabashesku
V Khabashesku
EBE Barrera
E Barrera

22 August 2017 in Membranes
Verified
Journal Article
Open access
PDF file
KBKaren Baylon
Karen Baylon
PRPerla Rodríguez-Camarillo
Perla Rodríguez-Camarillo
Alex Elías-ZúñigaAlex Elías-Zúñiga
Alex Elías-Zúñiga
JEJosé Antonio Antonio Díaz Elizondo
José Antonio Antonio Díaz Elizondo
RGRobert Gilkerson
Robert Gilkerson
Karen LozanoKaren Lozano
Karen Lozano
Surgical meshes, in particular those used to repair hernias, have been in use since 1891. Since then, research in the area has expanded, given the vast number of post-surgery complications such as infection, fibrosis, adhesions, mesh rejection, and hernia recurrence. Researchers have focused on the analysis and implementation of a wide range of materials: meshes with different fiber size and porosity, a variety of manufacturing methods, and certainly a variety of surgical and implantation procedures. Currently, surface modification methods and development of nanofiber based systems are actively being explored as areas of opportunity to retain material strength and increase biocompatibility of available meshes. This review summarizes the history of surgical meshes and presents an overview of commercial surgical meshes, their properties, manufacturing methods, and observed biological response, as well as the requirements for an ideal surgical mesh and potential manufacturing methods.