adedamola a. opalade
Research Scientist at Gilead Sciences
research scientist gilead science
professional interdisciplinary chemistry research background inorganic , bioinorganic chemistry , material science , surface science , nanoscience , physical inorganic , homogeneous heterogeneous catalysis . skilled x-ray crystallography , x-ray photoelectron spectroscopy , x-ray absorption spectroscopy , scanning electron microscopy , transmission electron microscopy , gas chromatography , mass spectrometry , uv-vis spectroscopy ( solid state solution ) , ir spectroscopy , nmr , dsc-tg analysis .
Gilead Sciences
https://www.linkedin.com/company/gilead-sciences
Foster City, California, United States
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Research Scientist
The University of Kansas
https://www.linkedin.com/company/university-of-kansas
Lawrence, Kansas Area
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Graduate Research Assistant
The University of Kansas
https://www.linkedin.com/company/university-of-kansas
Courses Instructed:
Organic Chemistry I Lab - FA 2016, 
General Chemistry II - SP 2017
General Chemistry I - FA 2017
General Chemistry II  - SP 2018
Chemistry for Engineers - FA 2018.
Lawrence, Kansas Area
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Graduate Student and Teaching Assistant
KU Center for Environmentally Beneficial Catalysis (CEBC)
https://www.linkedin.com/company/kucebc
Designing environmentally friendly and efficient catalysts for chemical reactions. Performance of in-situ/operando characterization with laboratory-based ambient pressure X-ray photoelectron spectrometer (XPS) and ambient pressure high temperature scanning tunneling microscope (STM). These studies provide in-situ information of nanocatalysts under a reaction condition or during catalysis.
1501 Wakarusa Dr.  LSRL Building A, Suite 110  Lawrence, KS 66047
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Research Assistant
Missouri State University
https://www.linkedin.com/company/missouri-state-university
Courses Instructed:
 General Chemistry I (CHE 161) - FA 2014 & SP 2015, 
General Chemistry II (CHE 171) - SU 2015, 
Organic Chemistry I (CHE 331) - FA 2015,
Essentials of Organic Chemistry (CHE 202) - SP 2016 & SU 2016.
Missouri State University
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Graduate Teaching Assistant
University of Ibadan
https://www.linkedin.com/company/university-of-ibadan
Ibadan, Oyo State, Nigeria
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University of Ibadan
Nigerian National Petroleum Corporation
https://www.linkedin.com/company/nigerian-national-petroleum-corporation
Analysis of petroleum product making sure they meet the required standards
Ibadan Nigerian
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Quality Control Analyst (Intern)
NIGERIAN EAGLE FLOUR MILL
https://www.linkedin.com/company/eagle-flour-mill
Monitoring the quality of food raw materials and finished product
Ibadan Nigeria
Quality Control Analyst (Intern)
Doctor of Philosophy - PhD
Education at the University of Kansas exposed me to a series of research activities. I spent about three years working on developing heterogeneous single-atom catalysts for industrial reactions. I performed catalyst activity testings, reaction optimization, reactor design, and characterization of catalytic materials using spectroscopic and microscopy techniques.
I spent two years in Bioinorganic chemistry, where I designed model inorganic metal complexes that mimic the activity of biological enzymes. I characterized these metal complexes using a battery of techniques like Uv-vis, NMR, XRD, XAS, FTIR, ESI-MS, EPR, etc. I also performed structure-activity correlation studies on these metal complexes to gain insights into the effect of some molecular interactions in the active site of biological enzymes. I applied quantum chemical calculations to validate and provide explanations for my experimental results.
Nanoscience, Material & Surface Science, Catalysis, Inorganic, Bioinorganic, and Physical Chemistry
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The University of Kansas
https://www.linkedin.com/school/university-of-kansas/
Certificate Program
This certificate program provided me with a detailed introduction to sustainability.
Sustainability Studies
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Thomas J. Watson College of Engineering and Applied Science, Binghamton University
https://www.linkedin.com/school/watson-college/
Master of Science - MS
My research at MSU entails developing Ni-, Cu- and Zn-cyanoximate complexes for applications in energy and materials. I synthesized the cyanoxime ligands and prepared their metal complexes. Then I worked on developing and validating a method to characterize these metal complexes by solid state Uv-vis (diffuse reflectance) spectroscopy. Single crystals of the metal complexes were also obtained and characterized by single-crystal x-ray crystallography. We characterized the bulk materials (powder) by PXRD, and applied other techniques like FTIR, mass spectrometry, elemental analysis, SQUID, EPR, and DSC-TGA to characterize the powder and single crystals. 
From this work, we developed an efficient and green Zn-cyanoximate catalyst for transesterification reaction, high-energy Cu-cyanoximate compound with potential applications in thermal actuators, and Ni-cyanoximate complexes with reversible moisture interaction making them potential candidates for applications in moisture sensors.
Inorganic and Coordination Chemistry, Homogeneous Catalysis, Organometallic Chemistry
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Missouri State University
https://www.linkedin.com/school/missouri-state-university/
BS
In the last semester of my last year at the University of Ibadan, I extracted oil from jack fruit and almond seeds using a Soxhlet extractor. Then I synthesized the hydroxamic acid derivatives of these triglycerides and tested the activity of the hydroxamic acid derivatives of bacteria and fungi. The result shows the significant activity of the hydroxamic acid derivatives against bacteria (very low relative MIC) with little effect on fungi. This research is relevant in developing antimicrobial compounds.
Industrial Chemistry
University of Ibadan
National Organization for the Professional Advancement of Black Chemists and Chemical Engineers (NOBCChE)
Member
National Society of Black Engineer (NSBE)
Member
American Chemical Society (ACS)
Member
American Association of Petroluem Geologist (AAPG)
Student Member
Manganese lipoxygenase (MnLOX) is an enzyme that converts polyunsaturated fatty acids to alkyl hydroperoxides. In proposed mechanisms for this enzyme, the transfer of a hydrogen atom from a substrate C-H bond to an active-site MnIII-hydroxo center initiates substrate oxidation. In some proposed mechanisms, the active-site MnIII-hydroxo complex is regenerated by the reaction of a MnIII-alkylperoxo intermediate with water by a ligand substitution reaction. In a recent study, we described a pair of MnIII-hydroxo and MnIII-alkylperoxo complexes supported by the same amide-containing pentadentate ligand (6Medpaq). In this present work, we describe the reaction of the MnIII-hydroxo unit in C-H and O-H bond oxidation processes, thus mimicking one of the elementary reactions of the MnLOX enzyme. An analysis of kinetic data shows that the MnIII-hydroxo complex [MnIII(OH)(6Medpaq)]+ oxidizes TEMPOH (2,2′-6,6′-tetramethylpiperidine-1-ol) faster than the majority of previously reported MnIII-hydroxo complexes. Using a combination of cyclic voltammetry and electronic structure computations, we demonstrate that the weak MnIII-N(pyridine) bonds lead to a higher MnIII/II reduction potential, increasing the driving force for substrate oxidation reactions and accounting for the faster reaction rate. In addition, we demonstrate that the MnIII-alkylperoxo complex [MnIII(OOtBu)(6Medpaq)]+ reacts with water to obtain the corresponding MnIII-hydroxo species, thus mimicking the ligand substitution step proposed for MnLOX.
Mimicking Elementary Reactions of Manganese Lipoxygenase Using Mn-hydroxo and Mn-alkylperoxo Complexes
Multidisciplinary Digital Publishing Institute, Molecules
https://www.mdpi.com/1420-3049/26/23/7151
The enzymes manganese lipoxygenase (MnLOX) and manganese superoxide dismutase (MnSOD) utilize mononuclear Mn centers to effect their catalytic reactions. In the oxidized MnIII state, the active site of each enzyme contains a hydroxo ligand, and X-ray crystal structures imply a hydrogen bond between this hydroxo ligand and a cis carboxylate ligand. While hydrogen bonding is a common feature of enzyme active sites, the importance of this particular hydroxo-carboxylate interaction is relatively unexplored. In this present study, we examined a pair of MnIII-hydroxo complexes that differ by a single functional group. One of these complexes, [MnIII(OH)(PaPy2N)]+, contains a naphthyridinyl moiety capable of forming an intramolecular hydrogen bond with the hydroxo ligand. The second complex, [MnIII(OH)(PaPy2Q)]+, contains a quinolinyl moiety that does not permit any intramolecular hydrogen bonding. Spectroscopic characterization of these complexes supports a common structure, but with perturbations to [MnIII(OH)(PaPy2N)]+, consistent with a hydrogen bond. Kinetic studies using a variety of substrates with activated O–H bonds, revealed that [MnIII(OH)(PaPy2N)]+ is far more reactive than [MnIII(OH)(PaPy2Q)]+, with rate enhancements of 15–100-fold. A detailed analysis of the thermodynamic contributions to these reactions using DFT computations reveals that the former complex is significantly more basic. This increased basicity counteracts the more negative reduction potential of this complex, leading to a stronger O–H BDFE in the [MnII(OH2)(PaPy2N)]+ product. Thus, the differences in reactivity between [MnIII(OH)(PaPy2Q)]+ and [MnIII(OH)(PaPy2N)]+ can be understood on the basis of thermodynamic considerations, which are strongly influenced by the ability of the latter complex to form an intramolecular hydrogen bond.
Controlling the Reactivity of a Metal-Hydroxo Adduct with a Hydrogen Bond
American Chemical Society, JACS
https://pubs.acs.org/doi/10.1021/jacs.1c06199
While alkylperoxomanganese(III) (MnIII–OOR) intermediates are proposed in the catalytic cycles of several manganese-dependent enzymes, their characterization has proven to be a challenge due to their inherent thermal instability. Fundamental understanding of the structural and electronic properties of these important intermediates is limited to a series of complexes with thiolate-containing N4S− ligands. These well-characterized complexes are metastable yet unreactive in the direct oxidation of organic substrates. Because the stability and reactivity of MnIII–OOR complexes are likely to be highly dependent on their local coordination environment, we have generated two new MnIII–OOR complexes using a new amide-containing N5− ligand. Using the 2-(bis((6-methylpyridin-2-yl)methyl)amino)-N-(quinolin-8-yl)acetamide (H6Medpaq) ligand, we generated the [MnIII(OOtBu)(6Medpaq)]OTf and [MnIII(OOCm)(6Medpaq)]OTf complexes through reaction of their MnII or MnIII precursors with tBuOOH and CmOOH, respectively. Both of the new MnIII–OOR complexes are stable at room-temperature (t1/2 = 5 and 8 days, respectively, at 298 K in CH3CN) and capable of reacting directly with phosphine substrates. The stability of these MnIII–OOR adducts render them amenable for detailed characterization, including by X-ray crystallography for [MnIII(OOCm)(6Medpaq)]OTf. Thermal decomposition studies support a decay pathway of the MnIII–OOR complexes by O–O bond homolysis. In contrast, direct reaction of [MnIII(OOCm)(6Medpaq)]+ with PPh3 provided evidence of heterolytic cleavage of the O–O bond. These studies reveal that both the stability and chemical reactivity of MnIII–OOR complexes can be tuned by the local coordination sphere.
Characterization and Chemical Reactivity of Room-Temperature-Stable MnIII-alkylperoxo Complexes
Royal Society of Chemistry, Chemical Science
https://pubs.rsc.org/en/content/articlehtml/2021/sc/d1sc01976g
In this study, we report the synthesis and characterization of [Fe(T1Et4iPrIP)(2-OH-AP)(OTf)](OTf) (2), [Fe(T1Et4iPrIP)(2-O-AP)](OTf) (3), and [Fe(T1Et4iPrIP)(DMF)3](OTf)3 (4) (T1Et4iPrIP = tris(1-ethyl-4-isopropyl-imidazolyl)phosphine; 2-OH-AP = 2-hydroxyacetophenone, and 2-O-AP– = monodeprotonated 2-hydroxyacetophenone). Both 2 and 3 serve as model complexes for the enzyme–substrate adduct for the nonheme enzyme 2,4′-dihydroacetophenone (DHAP) dioxygenase or DAD, while 4 serves as a model for the ferric form of DAD. Complexes 2–4 have been characterized by X-ray crystallography which reveals T1Et4iPrIP to bind iron in a tridentate fashion. Complex 2 additionally contains a bidentate 2-OH-AP ligand and a monodentate triflate ligand yielding distorted octahedral geometry, while 3 possesses a bidentate 2-O-AP– ligand and exhibits distorted trigonal bipyramidal geometry (τ = 0.56). Complex 4 displays distorted octahedral geometry with 3 DMF ligands completing the ligand set. The UV–vis spectrum of 2 matches more closely to the DAD-substrate spectrum than 3, and therefore, it is believed that the substrate for DAD is bound in the protonated form. TD-DFT studies indicate that visible absorption bands for 2 and 3 are due to MLCT bands. Complexes 2 and 3 are capable of oxidizing the coordinated substrate mimics in a stoichiometric and catalytic fashion in the presence of O2. Complex 4 does not convert 2-OH-AP to products under the same catalytic conditions; however, it becomes anaerobically reduced in the presence of 2 equiv 2-OH-AP to 2.
Probing the Mechanism for 2, 4′-Dihydroxyacetophenone Dioxygenase Using Biomimetic Iron Complexes
American Chemical Society, Inorganic Chemistry
https://pubs.acs.org/doi/abs/10.1021/acs.inorgchem.1c00167
A new in situ method for the synthesis of Ni(II) and Cu(II) complexes of 2-cyano-2-hydroxyimino-acetate dianion (AACO2−) was found. Previously, direct interaction between the H2AACO cyanoxime and its dianion did not lead to polymetallic complexes, which demonstrates the utility of this approach for synthetic coordination chemistry. The two copper(II) complexes were found to have properties of high-energy compounds which violently decompose with release of a significant kinetic energy and formation of elemental Cu.
New Route to Polynuclear Ni(II) and Cu(II) Complexes with Bridging Oxime Groups That Are Inaccessible by Conventional Preparations
American Chemical Society Crystal Growth and Design
https://pubs.acs.org/doi/abs/10.1021/acs.cgd.8b01262
Catalytic complete oxidation of CH4 at relative low temperatures is significant for removal of unburned CH4 in exhaust of combustion engines fueled with natural gas or liquefied petroleum gas. Here the nanocomposite catalyst (NiO/CeO2) consisting of CeO2 nanorods and supported NiO nanoclusters was prepared by a two-step wet-chemistry method. This nanocomposite catalyst exhibits high catalytic activity for complete oxidation of CH4 in the temperature range of 350-600 oC. CH3-like intermediate bound to Ni cations was observed at a relatively low temperature by ambient pressure X-ray photoelectron spectroscopy under a catalytic condition. Parallel kinetic studies of NiO/SiO2, CeO2 and NiO/CeO2 catalysts show that the apparent barrier for complete oxidation of CH4 on NiO/CeO2 (69.4±4KJ/mol) is much lower than 95.1±5 kJ/mol of pure CeO2 and 98.4±5 kJ/mol of NiO/SiO2, supported by the turn-over frequency of NiO/CeO2 significantly higher than NiO and CeO2. These differences show a synergic effect between CeO2 nanorods and its supported NiO nanoclusters. This synergic effect results from the interface of NiO and CeO2 observed in TEM. The lattice oxygen atoms at the interface exhibits high activity based on the lower reduction temperature uncovered in the studies of temperature-programmed reduction of H2.
Complete Oxidation of Methane on NiO Nanoclusters Supported on CeO2 Nanorods through Synergistic Effect
American Chemical Society Sustainable Chemistry and Engineering
https://pubs.acs.org/doi/abs/10.1021/acssuschemeng.8b00234
Reaction of 2-hydroxyimino-4,4-dimethyl-3-oxo-pentanenitrile (HPiCO, pivaloyl-cyanoxime) with zinc sulfate in an aqueous solution results in [Zn(PiCO){H(PiCO)2}(H2O)] (I) and tetranuclear Zn complex [Zn4(μ3−OH)2(PiCO)6(H2O)4] (II). Because of the structural flexibility and multidentate propensity of the pivaloyl-cyanoxime, the complexes may act as a structural model of naturally occurring Zn-containing enzymes. Compound I exhibits efficient catalytic performance for transesterification reaction of various esters in ethanol under mild reaction conditions, classifying it as green catalysis.
Zinc Complexes with Cyanoxime: Structural, Spectroscopic, and Catalysis Studies in the Pivaloylcyanoxime–Zn System
American Chemical Society, Inorganic Chemistry
http://pubs.acs.org/doi/abs/10.1021/acs.inorgchem.7b01891
Chemistry of a catalyst surface during catalysis is crucial for a fundamental understanding of mechanism of a catalytic reaction performed on the catalyst in the gas or liquid phase. Due to the pressure- or molecular density-dependent entropy contribution of gas or liquid phase of the reactants and the potential formation of a catalyst surface during catalysis different from that observed in an ex situ condition, the characterization of the surface of a catalyst under reaction conditions and during catalysis can be significant and even necessary for understanding the catalytic mechanism at a molecular level. Electron-based analytical techniques are challenging for studying catalyst nanoparticles in the gas or liquid phase although they are necessary techniques to employ. Instrumentation and further development of these electron-based techniques have now made in situ/operando studies of catalysts possible. New insights into the chemistry and structure of catalyst nanoparticles have been uncovered over the last decades. Herein, the origin of the differences between ex situ and in situ/operando studies of catalysts, and the technical challenges faced as well as the corresponding instrumentation and innovations utilized for characterizing catalysts under reaction conditions and during catalysis, are discussed. The restructuring of catalyst surfaces driven by the pressure of reactant(s) around a catalyst, restructuring in reactant(s) driven by reaction temperature and restructuring during catalysis are also reviewed herein. The remaining challenges and possible solutions are briefly discussed.
Operando chemistry of catalyst surfaces during catalysis
Royal Society of Chemistry, Chemical Society Reviews
http://pubs.rsc.org/en/content/articlelanding/2017/cs/c6cs00931j#!divAbstract
The design of one-dimensional nickel wires were attempted. Metal complexes of hydrated Cu(II) and Ni(II) with several cyanoximates were synthesized and characterized by elemental analysis, thermal analysis, IR-, electronic- (solid state diffuse reflectance) spectroscopy, and the X-ray analysis (powder diffraction and single crystal studies). Hydrolysis of the HECO and HMeCO cyanoxime ligands leads to the formation of another dianionic cyanoxime – AACO2-, which forms multimetallic Cu(II) and Ni(II) complexes and oxamide as a side product. The crystal and molecular structures of 8 compounds were determined (6 metal complexes and 2 organic compounds). Two Ni metal complexes have distorted octahedral structures with the cyanoximes acting as a chelating ligand, one Cu metal complex has distorted square pyramidal structure and three metal complexes of Cu and Ni were found to be multimetallic with two different environments: penta- and hexa-coordinated which correspond to distorted square pyramidal and octahedral geometries. The trimetallic complexes of Ni(II) and Cu(II) with AACO2- are isostructural. The tri-copper(II) complex demonstrates significant antiferromagnetic interactions between the cyanoxime-bridged metal centers at room temperature. All metal complexes have both coordinated, and crystallization water molecules, which are essential for the crystal packing via the system of H-bonds. The hydrated complexes of Ni(II) of selected cyanoximes were dehydrated, and respective anhydrous complexes were obtained and characterized. Electronic spectroscopy and XRD powder diffraction studies of the anhydrous complexes evidenced the retention of geometry of the central Ni atom after dehydration which suggests bridging function of cyanoximes in the lattices even after water loss. These results show the design of the desired one-dimensional nickel wire systems are feasible.
The Synthesis And Characterization Of Ni(II) And Cu(II) Cyanoximates
BearWorks
https://bearworks.missouristate.edu/theses/2973/
American Chemical Society (ACS)
2021 ACS Student Exchange Award
University of Kansas Department of Chemistry
Burton & Cheryle MacKenzie Scholarship Award
The Mike Shinn NSBE Distinguished Member of the Year Program provides scholastic
motivation to achieve and serves as a tool to encourage members to continue to strive for
academic excellence, while developing professional and leadership skills through organization
and community involvement. Judged on the basis of fulfillment of the mission through
participation in NSBE programs and other activities, the members selected for this prestigious
honor serve as role models for the entire membership.
National Society of Black Engineers (NSBE)
NSBE Golden Torch Award (Mike Shinn Member of the Year)
Biomedical Symposium (Higuchi Bioscience Center)
First Place Poster Presentation Award
National Society of Black Engineers
APEX Scholar
Awarded to a graduate student based on academic achievement, extracurricular activities,
personal accomplishments and demonstrated leadership in engineering or other technical fields.
National Society of Black Engineers
NSBE Golden Torch Award (Graduate Student of the Year)
The National Organization for the Professional Advancement of Black Chemists and Chemical Engineers (NOBCChE)
Advancing Science Travel Grant
National Organization for the Professional Advancement of Black Chemists and Chemical Engineers
Advancing Science Travel Grant
Department of Chemical and Petroleum Engineering, University of Kansas
Summer Research Fellowship
Bailey's Scholarship for Outstanding Incoming First Year Graduate Student (University of Kansas)
University of Kansas
Bailey's Scholarship for Outstanding Incoming First Year Graduate Student (University of Kansas)
Missouri State University
Outstanding Graduate Teaching Assistant
University of Ibadan
Father Foley Award for Best Graduating Chemistry Student
Unilever Plc/University of Ibadan
Lever Brothers of Nigeria Award for Best Honors in Chemistry
Nigerian Breweries/University of Ibadan
Nigerian Breweries Award in Chemistry and Biochemistry
Council for the Lindau Nobel Laureate Meetings
Lindau Nobel Laureate Meeting with Young Scientists, Germany
University of Ibadan
Dean’s Roll of Honor
Department of Chemistry, University of Ibadan
Overall winner of Professor Oladele Osibanjo Annual Inter-Varsity Chemistry Quiz Competition
Synthesis and Antimicrobial Activities of Hydroxamic Acid Derivatives of Seed Oils of Artocarpus heterophyllus and Terminalia Cattapa
The Syntheses and Characterization of Ni(II) and Cu(II) Cyanoximates
Adedamola A. Opalade
http://bearworks.missouristate.edu/theses/2973/
LinkedIn
www.linkedin.com
Building an Ethereum Blockchain App: 3 Ethereum Development
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LinkedIn
www.linkedin.com
Blockchain: Beyond the Basics
https://www.linkedin.com/learning/blockchain-beyond-the-basics
LinkedIn
www.linkedin.com
Building an Ethereum Blockchain App: 1 Introduction to Blockchain
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LinkedIn
www.linkedin.com
How Blockchains Will Change Business
https://www.linkedin.com/learning/how-blockchains-will-change-business
LinkedIn
www.linkedin.com
Blockchain Basics
https://www.linkedin.com/learning/blockchain-basics
Binghamton University
www.youracclaim.com
Sustainability
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LinkedIn
www.linkedin.com
Programming Foundations: Fundamentals
http://www.linkedin.com/learning/programming-foundations-fundamentals-3
LinkedIn
www.linkedin.com
Programming Foundations: Fuzzy Logic
http://www.linkedin.com/learning/programming-foundations-fuzzy-logic
LinkedIn
www.linkedin.com
Lean Six Sigma: Define and Measure Tools
http://www.linkedin.com/learning/lean-six-sigma-define-and-measure-tools
https://ng.linkedin.com/in/mary-adenowo-200479110
Nigeria
MARY ADENOWO
Chemical Analyst at Clean Environments Systems Limited
https://ng.linkedin.com/in/olayombo-margaret-taiwo-banwo-45b830206
Ibadan
Olayombo Margaret Taiwo - BANWO
Doctoral Student //Teaching and Research Assistant //Associate Member, RSC // Member, CSN.
https://za.linkedin.com/in/omolara-adeniran-phd-50a43b140
Durban
Omolara Adeniran (PhD)
University of KwaZulu-Natal
https://www.linkedin.com/in/chideraa-nwachukwu-ph-d-b6aa47a9
Wilmington, DE
CHIDERAA NWACHUKWU (Ph.D.)
Research Investigator at Dupont
https://ng.linkedin.com/in/temitayo-oluwadara-989ba4191
Nigeria
Temitayo Oluwadara
MS; Physical Chemistry
https://www.linkedin.com/in/sodiq-waheed-9a8304a2
Houghton, MI
Sodiq Waheed
PhD Candidate | Graduate Research Assistant at Michigan Technological University | EMTCCM Alumnus
https://de.linkedin.com/in/oluwaseun-ifedayo-ayodele-olu-igbiloba-316718109
Kaiserslautern
Oluwaseun Ifedayo Ayodele OLU-IGBILOBA
DAAD Scholar: Doctoral Researcher at University of Kaiserslautern
https://www.linkedin.com/in/tiwalola-ogunleye-3396b6121
Stillwater, OK
Tiwalola Ogunleye
Graduate Teaching Assistant at Oklahoma State University
https://www.linkedin.com/in/mosesogbaje
Lexington, KY
Moses Ogbaje
PhD Student | Lead TA, Organic Chem Labs | UKY NRT Fellow | Organic Semiconductors for Energy storage| Computational Chemist👨‍💻| UKY Murrill Fellowship Recipient
https://de.linkedin.com/in/ayokunle-ikuyinminu
Kreuztal
Ayokunle Blessing Ikuyinminu
Analytical Chemist at Lindenschmidt KG
https://ng.linkedin.com/in/oluwatosin-adeniran-157955102
Nigeria
Oluwatosin Adeniran
Pharmaceutical/Organic Chemist | Doctoral Student | Assistant Lecturer at Chrisland University | Associate member of Royal Society of Chemistry | Drug Discovery Research Scientist |  Computational Chemist.
https://www.linkedin.com/in/jeffery-darko-577b95107
Springfield, MO
Jeffery Darko
Student at Missouri State University
Chemistry major ( biochemistry emphasis) & Biology minor
https://ng.linkedin.com/in/kingsley-mbachu-1138bb92
Nigeria
Kingsley Mbachu
Doctoral Research Fellow
University of Ibadan
https://www.linkedin.com/in/noah-tosho-akinyosoye-97a27870
Plainfield, IN
Noah  'Tosho Akinyosoye
CEO / Managing Broker,  Zion Group Realtors,  Zion Group Properties LLC & Zion Group Property Managers.
https://ng.linkedin.com/in/emmanuel-animashaun2512
Lagos, Nigeria
Emmanuel Animashaun
Environment, Health & Safety Specialist
https://ng.linkedin.com/in/olaide-adeyemi-aa06aa173
Nigeria
Olaide Adeyemi
Biophysical and Physical Chemist | Computational Chemist | MSc. Chemistry (7.0/7.0 CGPA, University of Ibadan)
https://ng.linkedin.com/in/owoseni-sulaimon-343b418b
Nigeria
Owoseni Sulaimon
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https://www.linkedin.com/in/devin-j-swiner-phd-8110a6106
Avenel, NJ
Devin J. Swiner, PhD
Senior Scientist at Merck
Oluwaseun Mesele
      
          



            
              
        
              
  

    
        While studying for my PhD at the university of Kansas, Adedamola and I overlapped in the department. He’s an excellent researcher and leader who is fearless in his pursuit of answers to research questions. He’s unfazed by setbacks and determined in finding a way to make difficult experiments work. Adedamola will be a great addition to any team who is looking for a self driven, focused, skilled and brilliant chemist.
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Happy International Women's Day! To all the amazing women making those audacious moves and refusing to settle for less. Keep going. To the women who…
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Blessed to be able to testify about the supply of much needed #engineering talent and significant return on investment our proposed new engineering…
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The next 3 month I will focusing on these 3 gentlemen, we were lucky to have 3 healthy boys born i January. I feel privileged to be able to take…
Project Management Institute (PMI) Prep - LI Learning Group
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JavaScript Learning Group - LinkedIn Learning
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NOBCChE
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Chemistry UI Alumni Network
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NNPC NIGERIAN NATIONAL PETROLEUM CORPORATION
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Exxon Mobil
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