Rowan University - Chemistry
201 Mullica Hill Road
Glassboro
NJ 08028
Teaching Lecture and Labs. Classes included Chemistry of Everyday Life
Chem I and II
Organic Chem. and Adv. Inorg. Chem
as well as research.
Assistant Professor
Rowan University
Schering-Plough Research Institute
Colonial Chemical Company
Nova Pharmaceutical Corp
Rowan University
Adjunct Professor
Summit
NJ
HPLC method devlopment
forced degradation studies
dissolution studies
Karl-Fisher titrations (for % moisture).
Analytical Chemist
Schering-Plough Research Institute
• General Chemistry Instruction\nResearch Interests:\n• Nitrogen-containing heterocyles\n• Inorganic oxides
nanomaterials
and hybrid\nmaterials\n• Characterization by combined inorganic and\norganic methods (NMR
IR
MS
LC-MS
X-ray\ndiffraction)
Rowan University
Ph. D.
Chemistry
Novartis
Multi-step organic syntheses of drug candidates. Characterization of organic compounds (NMR
IR
MS). Chromatography: HPLC
LC
TLC. Automated chemistry.
Novartis
Research Scientist
Synthesized and characterized non-natural\nbradykinin mimics. Used computer modeling\n(Polygen Quanta and CHARMm) to design\nisosteres and extract information about bradykinin\nreceptor geometry.
Nova Pharmaceutical Corp
Graduate Assistant
Synthesis and total characterization of ceramic\ntransition metal oxides with low-dimensional\nstructures to understand structure-property\nrelationships in correlated-electron materials\nLouis Whaley\n3\n• Development of air-impermeable coatings (e.g.
\nSefose-soyate mulls) and inert-atmosphere\ntechniques (e.g.
Fe3Mo2-O2 buffer pellet) for air-\nsensitive oxides
Rutgers
The State University of New Jersey
Colonial Chemical Company
Tabernacle
NJ
• Special Research Projects Team\no Discover and develop intellectual\nproperty\no Discover new materials to achieve\nresearch goals\no Leverage multidisciplinary expertise in\nproblem-solving\n• New Products Consultation\n• Product Development Troubleshooter
Contractor
methods for API and drug product analysis.\n• Instrumentation Includes:\n• Waters Alliance and Agilent HPLC Systems\nUsing:\n• UPLC (Waters Acquity)\n• LC/MS in support of solution-phase
forced-\ndegradation methods.\n• Moisture Method Development\n• Dissolution Method Development
Schering Plough
Scientist I
(Employment Confirmation Hotline: 1-800-996-7566
\nemployee number 71764)\n• Skilled in multi-step synthesis and structural\ncharacterization of small-molecule drug\ncandidates.\n• Provider of training to Department scientists
in\nthe USA and Basel
Switzerland
in aspects of\nparallel synthesis/purification (Gilson HPLC\nplatform
with optional Mass Spec\ndetection/fraction collection): provider of\nequipment maintenance
upgrade installation
\nreagent/method development
and software\noptimization (α-testing).
Novartis Pharma
Adjunct Professor
General Chemistry Instruction\n• Organic Chemistry Instruction\n• Advanced Inorganic Instruction\nResearch Interests:\n• Organic and Inorganic syntheses (vide infra)\nLouis Whaley\n2\n• Thermally-switchable hybrid materials (ionic\nliquids) as reaction solvents
catalysts
and\npurification media\no V2O5 nanoparticles by spallation\no Thermochromic hybrid crystals\no M+\nBClF3\n-\n(chlorotrifluoroborate) salts\n• Development of new inorganic reagents to\nshorten organic synthesis schemes\no Thermally switched bromine source\no Double-acceptor synthon\no Polyoxometallate-PEG oxalate\no Indium anilides\n• Parallel/robotic/automated synthesis\n• Design and synthesis of novel antibiotics\no Tethered β-lactam-acrylates
\nacrylonitriles
vinyl halides
Rowan University
Teaching Assistant
Graduate teaching experience capitalized on my\nextensive expertise in general chemistry
\ninstrumental analysis
organic synthesis and\nproblem solving skills for teaching both small\n(~30 student) and large (~200 student) classes
Rutgers
The State University of New Jersey
Ph. D. Degree; Masters Degree
Synthesis
Characterization &\nStructure-Property Relationships of Mixed-metal\nOxides/Hybrid Salts
Masters Degree
Texas Tech University
Bachelors Degree
Loyola University
High-Performance Liquid Chromatography (HPLC)
Organic Synthesis
Powder X-ray Diffraction
FTIR
TLC
LC-MS
Organic Chemistry
Characterization
Purification
NMR
GC-MS
Materials Science
IR
Gas Chromatography
Catalysis
Chemistry
UV/Vis
Laboratory
Inorganic Chemistry
HPLC
Autochem: Automated Solution-Phase Parallel Synthesis and Purification via HPLC
Hanumantha Marepali
Ruben Tommasi
Correct order of authors: Tommasi
Whaley
Marepali. Summary: Described in this article is \"a practical method for performing parallel solution-phase synthesis with auto- \nmated on-line purification on one HPLC system\" (Autochem). \"The key benefits of \nAutoChem are ease of use
purity of products
and facile sample tracking through the use of standard HPLC software for product purification.\" \n
Autochem: Automated Solution-Phase Parallel Synthesis and Purification via HPLC
Martha Greenblatt
Marta Rossell
Gustaff Van Tendeloo
Jae-Hyuk Her
Peter W. Stephens
Samuel Lofland
Kandalam V. Ramanujachary
Mark Croft
Denis Sheptyakov
Maxim V. Lobanov
Sr 3 Fe 5/4 Mo 3/4 O 6.9
an n=2 Ruddlesden-Popper Phase: Synthesis and properties
Investigations into mixed-metal oxides reveal correlated-electron behavior in low-dimensional structures. Specifically
electrically conductive oxides are prepared with magnetic properties that include metal-insulator transitions with respect to temperature changes and changes in applied magnetic fields. These properties are explained on the basis of atomic crystal structure
magnetic structure
and existing models of electron transport in crystalline low-dimensional solids.
Structure-Property Relationships: Synthesis and Characterization of Perovskite-Related Transition-Metal Oxides
Lei Yu
Laura Snuffin
Correct order of authors: Snuffin
Whaley
Yu. Abstract: A novel ionic liquid EMIMBF3Cl that contains a BF3Cl− anion has been synthesized. This is the first report of an ionic liquid with a BF3Cl− anion. It was found that CO2 gas can be dissolved and electrochemically reduced at ambient pressure
and room temperature in the ionic liquid EMIMBF3Cl. The reduction of CO2 occurred at a relatively less negative electrode potential of −1.8 V vs. silver wire
compared to previous reported values that are between −2.4 and −2.0 V. The reduction current density can be as high as ∼5.7 mA/cm2. The BF3Cl− anion may catalyze the CO2 reduction by forming a Lewis acid-base adduct BF3-CO2.
Catalytic Electrochemical Reduction of CO2 in Ionic Liquid EMIM BF3Cl.
Lalita Nohrona-Blob
James Togo
James P. Sullivan
Judith C. Prosser
Sonya Meeker
Songfeng Lu
John P. Carter
Ron Burch
Jennifer A. Martin
Donald J. Kyle
Additional authors:
Jaqueline A. Sinsko
Robert F Walters
Roger Hiner. \nCorrect order of authors: Kyle
Martin
Burch
Carter
Lu
Meeker
Prosser
Sullivan
Togo
Nohrona-Blob
Sinsko
Walters
Whaley
Hiner. \nIn some abstracts and citations
the last few authors are listed as \"et al.\"\nThe hypothesis that a beta-turn in the four C-terminal amino acid residues of bradykinin analogues might be a prerequisite for high receptor affinity is pursued using non-natural amino-acid substitution in oligopeptides modelled after NPC 567. The synthesis of these non-natural amino acids and their incorporation into oligopeptides as well as Ki and pA2 values are reported for 5 decapeptides
along with conformational mapping of these model peptides. The data was used to better understand the interplay of the conformation of these peptides with the bradykinin receptor.
Probing the Bradykinin Receptor: Mapping the Geometric Topography Using Ethers of Hydroxyproline in Novel Peptides
Whaley
Rowan University
Novartis Pharma
Rutgers
The State University of New Jersey
Rowan University
Schering Plough