Literature DB >> 19615422

Tissue distribution of 20 nm, 100 nm and 1000 nm fluorescent polystyrene latex nanospheres following acute systemic or acute and repeat airway exposure in the rat.

Katherine Sarlo1, Karen L Blackburn, Edwin D Clark, Jeff Grothaus, Joel Chaney, Suzanne Neu, Janine Flood, Dana Abbott, Clarence Bohne, Keith Casey, Charles Fryer, Mike Kuhn.   

Abstract

Understanding tissue distribution and clearance of nanomaterials following different routes of exposure is needed for risk assessment. F344 female rats received single or multiple exposures to 20 nm, 100 nm or 1000 nm latex fluorospheres by intravenous (i.v.) injection or oral pharyngeal aspiration into the airways. The presence of fluorospheres in tissues was assessed up to 90-120 days after the final dose. Blood, perfusion fluid, bone marrow, brain, eyes, feces, gut, heart, kidney, liver, lung, muscle, skin, spleen, thymus, tongue, urine and uterus plus ovaries were collected for analysis. Liver, spleen and lung were the greatest tissue depots for all particles following i.v. injection. The proportion of 100 nm and 1000 nm but not 20 nm spheres significantly increased in the spleen over time. Lung was the greatest tissue depot for all particles following single or repeat airway exposure. Greater than 95% of 1000 nm spheres that were recovered were in the lung in contrast to 70-80% of 20 nm spheres or 89-95% of 100 nm spheres. All 3 sizes were found in gut or gut+feces 1-7 days after lung exposure. The thymus was the largest extra-pulmonary depot for the particles; up to 25% of recovered 20 nm particles were in the thymus up to 4 months after exposure compared to 6% of 100 nm particles and 1-3% of 1000 nm particles. A small proportion of 20 nm particles were detected in kidney following both acute and repeat airway exposure. Low numbers of particles were found in the circulation (blood, perfusion), bone marrow, brain, heart, liver and spleen but not in eye, muscle, skin, tongue, ovaries, uterus or urine. These data show that the tissue targets of nano- and micron-sized spheres are very similar whether exposure occurs systemically or via the airways while the proportion of particles in some tissues and tissue clearance varies based on particle size.

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Year:  2009        PMID: 19615422     DOI: 10.1016/j.tox.2009.07.002

Source DB:  PubMed          Journal:  Toxicology        ISSN: 0300-483X            Impact factor:   4.221


  23 in total

1.  Surface conjugation of EP67 to biodegradable nanoparticles increases the generation of long-lived mucosal and systemic memory T-cells by encapsulated protein vaccine after respiratory immunization and subsequent T-cell-mediated protection against respiratory infection.

Authors:  Shailendra B Tallapaka; Bala V K Karuturi; Pravin Yeapuri; Stephen M Curran; Yogesh A Sonawane; Joy A Phillips; D David Smith; Sam D Sanderson; Joseph A Vetro
Journal:  Int J Pharm       Date:  2019-05-08       Impact factor: 5.875

2.  Fluorescent reconstitution on deposition of PM2.5 in lung and extrapulmonary organs.

Authors:  Donghai Li; Yongjian Li; Guiling Li; Yu Zhang; Jiang Li; Haosheng Chen
Journal:  Proc Natl Acad Sci U S A       Date:  2019-01-28       Impact factor: 11.205

3.  Modulation of miRNA-155 alters manganese nanoparticle-induced inflammatory response.

Authors:  Matthew W Grogg; Laura K Braydich-Stolle; Elizabeth I Maurer-Gardner; Natasha T Hill; Suraj Sakaram; Madhavi P Kadakia; Saber M Hussain
Journal:  Toxicol Res (Camb)       Date:  2016-10-13       Impact factor: 3.524

4.  Rapid lymph accumulation of polystyrene nanoparticles following pulmonary administration.

Authors:  Abdul Khader Mohammad; Lenah K Amayreh; John M Mazzara; Joshua J Reineke
Journal:  Pharm Res       Date:  2012-09-20       Impact factor: 4.200

Review 5.  Convergence of nanotechnology and cancer prevention: are we there yet?

Authors:  David G Menter; Sherri L Patterson; Craig D Logsdon; Scott Kopetz; Anil K Sood; Ernest T Hawk
Journal:  Cancer Prev Res (Phila)       Date:  2014-07-24

Review 6.  "Extremely minimally invasive": recent advances in nanotechnology research and future applications in neurosurgery.

Authors:  Tobias A Mattei; Azeem A Rehman
Journal:  Neurosurg Rev       Date:  2014-08-31       Impact factor: 3.042

7.  Bayesian evaluation of a physiologically-based pharmacokinetic (PBPK) model of long-term kinetics of metal nanoparticles in rats.

Authors:  Lisa M Sweeney; Laura MacCalman; Lynne T Haber; Eileen D Kuempel; C Lang Tran
Journal:  Regul Toxicol Pharmacol       Date:  2015-07-03       Impact factor: 3.271

Review 8.  Polymeric nanoparticles in development for treatment of pulmonary infectious diseases.

Authors:  Young H Lim; Kristin M Tiemann; David A Hunstad; Mahmoud Elsabahy; Karen L Wooley
Journal:  Wiley Interdiscip Rev Nanomed Nanobiotechnol       Date:  2016-03-25

9.  Persistence of silver nanoparticles in the rat lung: Influence of dose, size, and chemical composition.

Authors:  Donald S Anderson; Rona M Silva; Danielle Lee; Patricia C Edwards; Arjun Sharmah; Ting Guo; Kent E Pinkerton; Laura S Van Winkle
Journal:  Nanotoxicology       Date:  2014-09-18       Impact factor: 5.913

10.  Intestinal mucus-derived nanoparticle-mediated activation of Wnt/β-catenin signaling plays a role in induction of liver natural killer T cell anergy in mice.

Authors:  Zhong-Bin Deng; Xiaoying Zhuang; Songwen Ju; Xiaoyu Xiang; Jingyao Mu; Qilong Wang; Hong Jiang; Lifeng Zhang; Mitchell Kronenberg; Jun Yan; Donald Miller; Huang-Ge Zhang
Journal:  Hepatology       Date:  2013-02-11       Impact factor: 17.425

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