Synthesis of 9,10 - Diphenylanthracene

Slides:



Advertisements
Similar presentations
Exp. 13: CALCULATION, CHROMATOGRAPHIC, AND SPECTRAL APPLICATIONS.
Advertisements

A Green Approach to Nitrogen Heterocycles: Application to Biologically Active Compounds Name: Josephine Dimbleby Department: Chemistry Supervisor: Andy.
Redox Neutral Aminal Formation Steven Young Department of Chemistry, University of New Hampshire, Durham, NH November 5, 2013 Introduction: Zero valent.
Synthesis Purification Characterization
Greener Routes to Production of Polymers Steven Young Department of Chemistry, University of New Hampshire, Durham, NH May 1, 2015 Introduction: Asahi.
Synthesis of Flavone and Initiation with Cytochrome P4501A2 Acknowledgments : I would like to thank Holly Guevara, Deepthi Bhogadhi, and Professor Greenberg.
Synthesis of [MoCp(CO) 2 (COCH 3 )(P(n-Bu) 3 )] : Investigation of an Air-Sensitive Migratory-Insertion Acknowledgments I’d like to thank the Advanced.
Drs. Wei Tian & Yanhui Chen Sep-Dec Main Content Introduction of Nuclear Magnetic Resonance (NMR) Analysis One Dimensional NMRs 1 H NMR 13 C NMR.
Solvatochromism and Photo-Induced Intramolecular Electron Transfer Katelyn J. Billings; Bret R. Findley 1 1 Department of Chemistry and Physics, Saint.
Luminol: Structure, Synthesis, chemical reaction, and its function.
Chain Extension-Mannich Reactions with Sulfonyl Imines Acknowledgments This work would not have been possible without the help of Dr. Zercher, Deepthi.
Tetrahydroisoquinoline: Oxidative imine formation, nucleophilic addition reactions and asymmetric selectivity James Fuster, Dr. Rina Soni, Professor Martin.
Preparation and Luminescence of Naphthylated Metalloles Kristopher Fecteau Summer 2007 SURF research project.
Max Bilodeau Department of Chemistry, University of New Hampshire, Durham, NH December 1, 2013 Introduction Results and Discussion: Conclusions: Acknowledgements:
Suzuki Coupling: Aqueous and Anhydrous Synthesis of Ferrocene-Capped Thiophene Bill Mitchell
Single-Chain Nanoparticles from Sequenced Polyolefins Acknowledgments Thank you to Dr. Erik Berda and the Berda research group for allowing me to join.
Synthesis and Phosphine-Induced Migratory-Insertion Reactivity of CpMo(CO) 3 (CH 3 ) Mark F. Cashman, Luke Futon*, Roy Planalp* Department of Chemistry,
Adapted Zard Synthesis of Trifluoromethyl Ketones from Carboxylic Acids Brandon Mercer Department of Chemistry, University of New Hampshire, Durham, New.
Progress Towards the Synthesis of 4,5-Benzoxepin Derivatives for Use in Coupling Reactions Bryanna Dowcett, Arthur Greenberg, Holly Guevara
Four-Step Synthesis of N,N-di(2-pyridylmethyl)-propylacrylamide: a Ligand to be Used in the Detection of Copper Four-Step Synthesis of N,N-di(2-pyridylmethyl)-propylacrylamide:
Modeling N–H ・・・ O Hydrogen Bonding in Biological Tyrosinate-bound Iron Centers INTRODUCTION Future Work: Table 1. Synthesis of 1 (2-Aminophenol). Finish.
B-Protected Haloboronic Acids for Iterative Cross-Coupling Eric Guinto; TA: Deepthi Bhogadhi Department of Chemistry, University of New Hampshire, Durham,
UNH Chemistry 756: Synthesis of 5,12-bis(phenylethynyl)-tetracene (BPEN) Acknowledgments Thanks to the UNH Chemistry Department for providing funding for.
Progress towards the Synthesis of 1-Benzoxepin; A Model Oxepin Substrate Ian Smith, Ryan Fitzgerald, Holly Guevara, Arthur Greenberg
Ian Martin, Cynthia Gerber, Lea Nyiranshuti, and Dr. Roy Planalp*. Department of Chemistry, University of New Hampshire. Summary and Conclusions Acknowledgements.
Reaction Pathways The goal being to synthesize FeL 2 HCl, there are many pathways that can be taken. The figure below represents the various attempts that.
Synthesis of Carbon Quantum Dots and Their Use as Photosensitizers Anthony J. Lemieux, Christine A. Caputo Department of Chemistry, University of New Hampshire,
Effect of Reaction Conditions on Oxidation of Anthracene with a Vanadium Catalyst Acknowledgments Special thanks to Lea Nyiranshuti as well as Luke Fulton,
UNH Chemistry 775: Synthesis of Two Tetrahalodimolybdenum(II) Complexes Acknowledgments Thanks to the UNH Chemistry Department for providing funding for.
Results and Discussion
Spectral and Electrochemical Characteristics of Silver Complexes and their Potential Metal-to-Charge Transfer Capabilities Matthew Reuter, Roy Planalp,
Synthesis, Characterization, and Computational Modeling of [Co(acacen)L2]+, an Inhibitor of Zinc Finger Proteins Thomas Williams, Matthew Currier, Timothy.
Kassie Picard, Arthur Greenberg, Holly Guevara
Results and Discussion:
Sean Pierre-Louis, Marc Boudreau, Bill Butler
Observed Phase Behavior
Partial Synthesis of Heliotridane
Isolation of the Desired Product (III)
Aaron Chung, Sarah Joiner
 Literature Value (cm-1) (chemical shift ppm, splitting, int.)
Vivek Anand and R. Dhamodharan*
Figure 1. Phenethylamine 1H FT-NMR Spectrum in CDCl3 at 400 MHz.
Joey Mancinelli, Zane Relethford, Roy Planalp
Aaron Chung, Sarah Joiner
Synthesis and Photocatalysis with Cobaloxime Derivative
Synthesis Purification Characterization
Investigation of the Effect of Ligands on Metal-to-Ligand Charge Transfer Transitions using d10-complexes of Group 11 Elements Evangelos Rossis, Roy Planalp,
Place your Project Logo Here
Put your name here Name of the Department, School or College
Chemistry-Part 1 Inside the Atom
Data and Interpretation 4NaHSO4+5NaClO24ClO2+2H2O+4Na2SO4 (2)
Put your name here Name of the Department, School or College
from Water Katherine Dombroski, Dejun Dong, Hannah Coco
Put your name here Name of the Department, School or College
Sarah Lachapelle, Brian Patenaude, Samuel Pazicni
Controlled Synthesis of Single-chain Nanoparticles Under Various Atom Transfer Radical Coupling Conditions Courtney M. Leo, Ashley Hanlon, Elizabeth Bright,
Results and Discussion:
The First Conventional Synthesis of 1-methyl-4-silatranone and
Synthesis of Hydrogels for the Protection of Phosphorene
Reasearch in the Greenberg Group Results and Discussion:
Synthesis of p-xylene diisocyanide and Polymerization
methyltriethoxysilane
Put your name here Department of What, School or College
Joey Mancinelli, Justin Cole, Erik Berda
Synthesis and Characterization of a
Yields from Varying Lab Sections Summary and Conclusions
Joey Mancinelli, Justin Cole, Erik Berda
Synthesis of Functionalized BODIPY Dyes for Use as Fluorescent Probes
Chemquats: Synthesis of an Exotic Ester
Summary and Conclusions
Presentation transcript:

Synthesis of 9,10 - Diphenylanthracene Tom Williams, Arthur Greenberg, William Butler tjw2001@wildcats.unh.edu, Department of Chemistry, University of New Hampshire, Durham, NH December 9th, 2016 As a chemiluminescent molecule, 9,10 – diphenylanthracene emits light in the present of stimulants. Research at North Carolina State University indicates that the compound emits blue light in the presence of 1,2 – dioxetanedione, which would be the next logical step to this procedure, a process that is shown in Scheme 3. According to H1NMR spectra, one can claim that the products were pure; so further purification is not necessary.4 9,10 – Dibromoanthracene is easily synthesized using the bromination technique presented. The diphenyl product is slightly more difficult to create and requires an expensive catalyst. Through cost analysis (on Sigma-Aldrich) it was determined that the process used to create the product costed $140.47 per gram of product while analytical standard 9, 10 – diphenylanthracene costs $190.80 per gram, which interestingly shows the process used is more finically beneficial, however overhead and labor costs are not considered. I would like to thank Professors Joiner and Greenberg and the UNH Department of Chemistry. Chien, Wei-Lun., Yang, Chih-Min., Chen, Tai-Lin., Li, Shu-Ting., Hong, Jin-Long. Enhanced emission of a pyridine-based luminogen by hydrogen-bonding to organic and polymeric phenols. RSC Advances, 3, 6930-6938, 2013. Serevicius, Tomas., Komskis, Regimantas., Adomenas, Povilas., Adomeniene, Ona., Jankauskas, Vygintas., Gruodis, Alytis., Kazlauskas, Karolis., Jursenas, Saulius. Non-symmetric 9,10-diphenylanthracene-based deep-blue emitters with enhanced charge transport properties. Royal Society of Chemistry, 16, 7089, 2014. Suda, Mitsuru., Kai, Takahiro., Yamamoto, Toshihiro. Organic electroluminescent device having triptycene derivative material. US8906521 B2, December 9, 2014. Wilson, Elizabeth. What’s that Stuff? Chemical and Engineering News. 77 (3), 65, 1999. 9,10 – Diphenylanthracene is a blue chemiluminescent dye that can be used in LED and non-electronic (fluorescent) lights.2 A bromination reaction and a Suzuki coupling reaction are utilized in the synthesis of the product; synthesis methods that are fairly simple and effective. 9, 10 -diphenylanthracene is a relatively expensive material and so a goal of the experiment is to efficiently synthesize it in the laboratory. If an efficient enough process is found it could become a considerably more affordable product and thus, more accessible in industry and research. 9, 10 – Diphenylanthracene was synthesized via a multistep synthesis using anthracene, with purity as a goal. The intermediate 9, 10 – dibromoanthracene was created through a bromination reaction in chloroform (Scheme 1).1 Once the intermediate had been formed, a Suzuki coupling was performed using phenylboronic acid over a tetrakis(triphenylphosphine)palladium(0) catalyst to form the title compound (Scheme 2).3 The bromination of anthracene was a very successful and simple reaction with excellent yield (75.2%). As 9,10 – dibromoanthracene is a very symmetrical molecule with only aromatic protons, two quartet peaks appear in the H1NMR spectrum due to long-range coupling, as indicated in Figure 1 below. The melting point also correlated perfectly with literature values, with the experimental range at 224.4°C – 225.3°C and the literature value from 223°C – 224°C. These factors together indicate great purity of the intermediate product. The Suzuki coupling of 9, 10 – dibromoanthracene and phenylboronic acid yielded the desired product at 11.2%. The five specific peaks analyzed all appropriately appeared in the aromatic region of the spectra (Figure 2). With a melting point range of 242.5°C – 247.3°C some impurities were implied as theoretical melting point is 248°C - 250°C, however these are relatively unobservable on the H1NMR and so it was determined that product was pure, according to H1NMR spectra. Introduction: Results and Discussion: Future Work: Experimental Design: Scheme 3: Chemiluminescenes of 9, 10 - Diphenylanthracene Conclusions: Figure 1: H1NMR of 9, 10 – Dibromoanthracene 75.2% Yield Scheme 1: Bromination of Anthracene Acknowledgements: Figure 2: H1NMR of 9, 10 – Diphenylanthracene References: 11.2% Yield Scheme 2: Suzuki Coupling of 9, 10 – Dibromoantracene with Phenylboronic Acid