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Radiolytic Synthesis of Pt-M@MWNT Catalysts (M=Ru, Sn, and Au) for Biosensors Hai-Doo Kwena and Seong-Ho Choib,* Department of Chemistry, Hannam University, Daejeon 305-811, Republic of Korea ahdkwen@naver.com, bshchoi@hnu.kr *Author for correspondence.
The experimental results show that such biosensors can be applied to glucose detection in food chemistry field.
These peaks are assigned as Pt (111), (200) planes, and (220), respectively, of the face centered cubic (fcc) structure of platinum and platinum alloy particles [15].
The XRD peaks corresponding to metallic ruthenium with hexagonal structure were not detected for these samples.
As results, the prepared biosensor based Pt-M@MWNT catalysts can be applied to glucose detection in food chemistry field.

With the evolution of fabrication techniques and the development of new structures for semiconducting materials, the list of new defect phenomena will continue to increase.
I also express my thanks to Director Bhabha Atomic Research Centre and Director, Chemistry Group of the Centre for the use ofBARC library.
Agarwala graduated from Agra University, India and got his M.Sc. in Physical Chemistry in 1950 and then went to Imperial College of Science, Technology and Medicine, London and secured Ph.D (Lond.
Univ.) in Applied Physical Chemistry and D.T.C. in 1953.

Following the success of the previous SCTE Conference, which took place in Annecy, France, in 2010, more than 200 participants, from all over the world, decided to come to Lisbon to present their results, exchange ideas and discuss about the recent advances on solid state chemistry, physics and materials science of compounds containing d- and f- elements.
Indeed, SCTE-2012 has provided an open and informal discussion forum on topics that comprised processes and syntheses, crystal chemistry, phase equilibria, thermodynamics, magnetic and electrical properties, theory, electronic structure, chemical bonding and applications of intermetallic compounds, pnictides, chalcogenides, oxides, halides and other solid compounds of transition elements.
SCTE-2012 had a Special Session Dedicated to the Nobel Prize in Chemistry 2011, which was award to Professor Dan Shechtman "for the discovery of quasicrystals".

Onani3,c* 1,3Department of Chemistry, University of the Western Cape, Private Bag X17, Bellville 7535, South Africa 2Department of Chemistry, University of Zimbabwe, PO Box MP167, Mt Pleasant, Harare, Zimbabwe E-mail: aoumachieng@gmail.com, bmushonga777@gmail.com, cmonani@uwc.ac.za Keywords PbSe, Nanocrystals (NCs), nucleation, non-coordinating, photoluminescence (PL) Abstract Colloidal syntheses of PbSe nanocrystals (NCs) have been widely investigated and the properties of nanocrystals have been shown to vary with reaction conditions, time, concentration and chemistry of reagents as well as the surfactants used.
Lead acetate produced cubic NCs which were larger than the spherical NCs obtained when lead oxide was used. 1 Introduction Colloidal NCs of group IV-VI compounds have received widespread attention due to their unique electronic structures and superior optical properties [References [] J.
The semiconductor NCs which are synthesized using colloidal methods have been reported to possess unique properties dictated by reaction conditions, time, concentration and chemistry of reagents and surfactants [[] C.B.
In Nanomaterials chemistry: Recent Developments and New Directions. ].
Hens, Surface chemistry of colloidal PbSe nanocrystals.

The cellulose nanofibers (CNF) and the diamond-like carbon (DLC) nanocomposites films would provide inspiration for the oil field chemistry and protection of downhole tools.
The main structure of plants is nanofibers of cellulose.
The CNF has the advantages of ultra-fine dimensions, high surface area, etc., as well as high aspect ratio and easily interweaving into a mesh-like entangled structure.
The process of technology development involves mathematics, physics, chemistry, mechanics, geology, engineering science and other disciplines.
The CNF and the DLC nanocomposites films would provide inspiration for the oil field chemistry and protection of the downhole tools.

Graphical representation of optimized structure, HOMO and LUMO orbit diagrams.
Theoretical calculation The optimized ground state geometry structures present in Fig 2.
The computational studies reported here were done on the Guizhou University High Performance Computation Chemistry Laboratory (GHPCC).
P, Inorganic Chemistry. 46 (2007) 6464
O, Inorganic Chemistry. 44 (2005) 2326

Sutami 36A, Surakarta 57126, Central Java, Indonesia 2Department of Chemistry, Faculty of Mathematics and Natural Sciences, Sebelas Maret University, Jl.
Cu metal can be coordinated by ligand that donors free electron forming ringlike structure.
The complex of Cu(II) holds important role in bioinorganic chemistry, catalysis, and magnetism.
The Fig.4. suggests the possible structure for the complex Cu(II)-PB.
Pramono, Synthesis and characterization of Cu (II) and Co (II) complexes with m-phenylendiamine ligand, Rasayan Journal of Chemistry. 16 (2023) 2

A: continuous partition guideline structure (CPGS), B,C: intermittent partition wall structure (IPWS) [16] Fig.2 Reactor chip and reaction system with microscope.
For this purpose, we have proposed several microchannel structures.
Figure 1-A shows continuous partition guideline structure (CPGS) and Fig.1-B and C show a guideline structure with intermittent partition wall structure (IPWS).
References [1] "The 12 Principles of Green Chemistry".
Tagawa, Journal of Industrial and Engineering Chemistry 15 (2009) 829–834 [14] S.

Fig. 1 Chemical structure of Cathilon dye Fig. 2 Atomic concentration on the surface of Al/A5052 Experimental Procedure Photocatalyst.
Cathilon dye is a luminous dye (Hodogaya Chemical Co.), the chemical structure of which is shown in Fig. 1.
Tanaka, Inorganic Chemistry X-1-1 Aluminum, Maruzen (1975) 121-173 (in Japanese)
Kanno (Trans.), Inorganic Chemistry, Syougakusya (1994) 165 (in Japanese)
Murakami, Inorganic Chemistry, Sankyou Syuppan, (1981) 200 (in Japanese).

The FTIR is used to further analyze the structure.
Chemistry of aerogels and their applications[J].
Chemistry of aerogels and their applications[J].
Chemistry of materials, 2005, 17(2): 395-401
Chemistry of materials, 2000, 12(4): 931-939