Hy vogel biography template
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Published in final edited form as: Nano Today. Aug 1;5(4)– doi: /
Abstract
Biomineralization processes such as formation of bones and teeth require controlled mineral deposition and self-assembly into hierarchical biocomposites with unique mechanical properties. Ideal biomaterials for regeneration and repair of hard tissues must be biocompatible, possess micro and macroporosity for vascular invasion, provide surface chemistry and texture that facilitate cell attachment, proliferation, differentiation of lineage specific progenitor cells, and induce deposition of calcium phosphate mineral. To expect in-vivo like cellular response several investigators have used extracellular matrix proteins as templates to recreate in-vivo microenvironment for regeneration of hard tissues. Recently, several novel methods of designing tissue repair and restoration materials using bioinspired strategies are currently being formulated. Nanoscale str
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Green Revolution
Agricultural developments in s–s
For other uses, see Green Revolution (disambiguation).
The Green Revolution, or the Third Agricultural Revolution, was a period of technology transfer initiatives that saw greatly increased crop yields.[1][2] These changes in agriculture began in developed countries in the early 20th century and spread globally until the late s.[3] In the late s, farmers began incorporating new technologies such as high-yielding varieties of cereals, particularly dwarf wheat and rice, and the widespread use of kemikalie fertilizers (to produce their high yields, the new seeds require far more fertilizer than traditional varieties[4]), pesticides, and controlled irrigation.
At the same time, newer methods of cultivation, including mechanization, were adopted, often as a package of practices to replace traditional agricultural technology.[5] This was often in conjunction with loans condition
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Impact of template denaturation prior to whole genome amplification on gene detection in high GC-content species, Burkholderia mallei and B. pseudomallei
- Research Note
- Open access
- Published:
- Chris R. Taitt1,2,
- Tomasz A. Leski2,
- Jaimee R. Compton2,
- Amy Chen3,
- Kimberly L. Berk4,
- Robert W. Dorsey4,
- Shanmuga Sozhamannan5,6,
- Dianne L. Dutt7 &
- …
- Gary J. Vora2
BMC Research Notesvolume 17, Article number: 70 () Cite this article
Abstract
Objective
In this study, we sought to determine the types and prevalence of antimicrobial resistance determinants (ARDs) in Burkholderia spp. strains using the Antimicrobial Resistance Determinant Microarray (ARDM).
Results
Whole genome amplicons from 22 B. mallei (BM) and 37 B. pseudomallei (BP) isolates were tested for > ARDs using ARDM v ARDM detected the following Burkholderia spp.-derived genes, aac(6), blaBP/MBL-3, blaABPS, penA-BP, and qacE, in both BM and B