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Copper(II) nitrate - Wikipedia

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20/03/2010 · Copper (II) Nitrate synthesis..

Ryan R. Walvoord was born in 1986 in the small town of Williamson, NY. He received a B.S. in Chemistry from the Rochester Institute of Technology in 2007, where he performed undergraduate research in the laboratories of Professor Christina G. Collison. In the same year, he began his graduate studies at the University of Pennsylvania under the guidance of Professor Marisa C. Kozlowski. His research in the Kozlowski group has focused on the synthesis and chemistry of arylnitromethanes, as well as the spectroscopic investigation of hydrogen bonding using colorimetric sensors.

Copper(II) nitrate, Cu(N O 3) 2, is an inorganic compound that forms a blue crystalline solid
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Instead of placing a piece of zinc directly into a solution containing copper, we can form a cell where solid pieces of zinc and copper are placed in two different solutions such as sodium nitrate.

Preparation of Copper Nitride (Cu3N) Nanoparticles in …

Copper(II) nitrate - Sciencemadness Wiki
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Rajender S. Varma was born in India (Ph.D., Delhi University, 1976). After postdoctoral research at Robert Robinson Laboratories, Liverpool, U.K., he was a faculty member of the Baylor College of Medicine and Sam Houston State University prior to joining the Sustainable Technology Division at the U.S. Environmental Protection Agency in 1999. He has over 40 years of research experience in management of multidisciplinary technical programs and is extensively involved in sustainable aspects of chemistry, which include development of environmentally benign synthetic methods using alternate energy input using microwaves, ultrasound, and mechanochemistry, etc., efficient technologies for greener remediation of contaminants, and environmental sciences. Lately, he has been focused on greener approaches to assembly of nanomaterials and sustainable applications of magnetically retrievable nanocatalysts in benign media. He is a member of the editorial advisory board of several international journals and has published over 430 scientific papers and been awarded 14 U.S. patents.

Tewodros (Teddy) Asefa is currently a professor in the Department of Chemistry and Chemical Biology and the Department of Chemical and Biochemical Engineering at Rutgers University in New Brunswick, NJ. He is also a member of the Rutgers Institute for Materials, Devices, and Nanotechnology (IAMDN) and the Rutgers Energy Institute (REI). In December 2009, he helped to put together the Rutgers Catalysis Research Center (RCRC). His group at Rutgers is involved in the development of synthetic methods of a wide array of functional and core/shell nanomaterials and the investigation of their potential applications in catalysis, electrocatalysis, targeted delivery of drugs to specific cells, nanocytotoxicity, solar cells, and environmental remediation. He is a recipient of the National Science Foundation (NSF) CAREER Award (2007–2012), the NSF Special Creativity Award in 2011, the Rutgers Board of Governors Research Fellowship in 2012, and multiple federal and local research grants. He was named the National Science Foundation American Competitiveness Fellow (NSF ACIF) in 2010 and also serves as a panelist for several federal and international agencies. He has recently coedited a book on nanocatalysis (Wiley) and has written over 120 peer-reviewed scientific papers and several book chapters over the past decade.

Synthesis of Copper Nanoparticles by Leaf Extract – …

Anhydrous copper nitrate synthesis eluded chemists for a long time, ..
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In our laboratory, we are studying copper nitride (Cu3N) nanoparticles as a novel conductive ink that is stable to oxidation and can be metallized at low temperature. In this study, Cu3N nanoparticles prepared via the reaction of copper(II) acetate monohydrate with ammonia gas in long-chain alcohol solvents were characterized by X-ray diffraction analysis, transmission electron microscopy, Fourier transform infrared spectroscopy, and elemental analysis. In addition, we used thermogravimetry–differential thermal analysis to compare the thermal decomposition properties of the prepared Cu3N particles and commercially available Cu3N particles. The decomposition temperature of the prepared particles was more than 170 °C lower than that of the commercial particles. We also examined the influences of the reaction temperature and the alkyl chain length of the alcohol solvent on the product distribution of the reaction and the morphology of the particles. Our results indicated that increasing the solvent hydrophobicity and eliminating water from the reaction system by increasing the temperature affected the product distribution. On the basis of an observation of chromatic change of the reaction solvent and an analysis of the byproducts in the alcohol solvent after the reaction, we propose a mechanism for the formation of Cu3N.

The applications of copper (Cu) and Cu-based nanoparticles, which are based on the earth-abundant and inexpensive copper metal, have generated a great deal of interest in recent years, especially in the field of catalysis. The possible modification of the chemical and physical properties of these nanoparticles using different synthetic strategies and conditions and/or via postsynthetic chemical treatments has been largely responsible for the rapid growth of interest in these nanomaterials and their applications in catalysis. In addition, the design and development of novel support and/or multimetallic systems (e.g., alloys, etc.) has also made significant contributions to the field. In this comprehensive review, we report different synthetic approaches to Cu and Cu-based nanoparticles (metallic copper, copper oxides, and hybrid copper nanostructures) and copper nanoparticles immobilized into or supported on various support materials (SiO2, magnetic support materials, etc.), along with their applications in catalysis. The synthesis part discusses numerous preparative protocols for Cu and Cu-based nanoparticles, whereas the application sections describe their utility as catalysts, including electrocatalysis, photocatalysis, and gas-phase catalysis. We believe this critical appraisal will provide necessary background information to further advance the applications of Cu-based nanostructured materials in catalysis.

Being a water-soluble copper salt, copper(II) nitrate is of moderate toxicity.
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Synthesis of Copper Compounds and Isolation of Copper …

, , , and , 2014. Synthesis and characterization of tris(triphenylphosphane)copper(I) nitrate dimer and its applications as precursor of copper oxide nanorods. Inorganica Chimica Acta, 411, pp. 102-105.

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