The Poster Program highlights research from academia and industry in laboratory technologies spanning several diverse market segments and scientific disciplines. There are two poster sessions, one on Monday, January 26 and the second on Tuesday January 27.
Click on a day below to jump to that day's poster. Click on a column heading (e.g. "Author") to sort each day's posters by that column.
Click on a code to view the details of that abstract.
| Monday, January, 26, 2009 |
| Code |
Title |
Author |
Organization |
Track |
| MP01 |
Simple and Fast Performance Verification for Ultra-Low-Volume Liquid Handlers: Nanoliter Aqueous Fluid Transfers Assessed with Dual-Dye Technology |
Mr. Keith Albert, Ph.D. |
ARTEL |
High-Throughput Technologies |
| MP02 |
Functional siRNA library screening in biologically relevant cell types using 96-well Nucleofection® and liquid handling robotics. |
Ludger Altrogge, Ph.D. |
Lonza Cologne AG |
High-Throughput Technologies |
| MP03 |
Novel Gyrasol Kinase Assay Using BioTek's Synergy™ 4 Hybrid Microplate Reader
|
Mr. Xavier Amouretti |
BioTek Instruments |
High-Throughput Technologies |
| MP04 |
Back-scattering Interferometry (BSI) as a Diagnostic Tool |
Carolyn Anderson |
Vanderbilt University |
Detection & Separation |
| MP05 |
Storing Result Data and Metadata from Complex Analytical Experiments with AnIML |
Dennis Backhaus |
National Institute of Standards and Technology |
Informatics |
| MP06 |
Plate Washing in 1536: Evaluation of a Double Column Aspirator Head |
Michelle Batchlett, B.S. |
Merck & Co. |
High-Throughput Technologies |
| MP07 |
Selective Detection of Endogenous Thiols Using Microchip-based Flow Analysis and Mercury/Gold Amalgam Microelectrodes |
Nicholas Batz |
Saint Louis University |
Micro- & Nanotechnologies |
| MP08 |
Chip-based continous-flow PCR using sample stacking and integrated sample preparation |
Dr. Holger Becker, Ph.D. |
microfluidic ChipShop |
Micro- & Nanotechnologies |
| MP09 |
High Throughput Analysis of Metabolic Stability Incubations Using Automated Compound Optimization and Multiple Parallel Chromatography Systems |
Matthew Berube, B.S. |
Thermo FIsher Scientific |
High-Throughput Technologies |
| MP10 |
Protein Crystallization Condition Finding with a Novel Nanoliter Assay System |
Dr. Michael Biros, M.B.A. |
SpinX Technologies, Inc |
Micro- & Nanotechnologies |
| MP11 |
Automation of Data Acquisition for Sample Lifecycle Management |
Craig Blackhart, M.S. |
Los Alamos National Laboratory |
Informatics |
| MP12 |
An Automated Method for In Vitro Sampling and Quantification |
matt boecekeler, B.S. |
AstraZeneca Pharmaceuticals |
Emerging Areas of Laboratory Automation |
| MP13 |
Geneus: an Automated Translational Research Informatics Solution for Genomics Laboratories |
Mr. John Bon, Ph.D. |
GenoLogics |
Informatics |
| MP14 |
Nanoporous Alumina Membranes Based Microdevices for Ultrasensitive Protein Detection |
Manish Bothara, Ph.D. |
Portland State University |
Micro- & Nanotechnologies |
| MP15 |
Integrating Serpentine Microchannels with Microchip Electrophoresis and Electrochemical Detection |
Amanda Bowen, M.S. |
Saint Louis University |
Detection & Separation |
| MP16 |
Beyond Biomolecular Screening: A Multi-Parametric Procedure for Efficient Hit and Lead Identification |
Dr. Annette Brodte, Ph.D. |
Genedata |
Informatics |
| MP17 |
Automation of multiplexed mRNA expression assay for high throughput screening |
Wendy Broom, Ph.D. |
Novartis Institutes for Biomedical Research |
High-Throughput Technologies |
| MP18 |
Simulation of fluid solutions with magnetic microbeads for biosensors |
SuGeun Chae, B.S. |
|
High-Throughput Technologies |
| MP19 |
Development and Characterization of “Push-Pull” Sampling Device with Fast Reaction Quenching for PAT |
Ms. Claire Chisolm, M.S. |
University of Michigan |
Detection & Separation |
| MP20 |
A Novel Robotic Platform using Mobile Agents for Laboratory Automation |
Dr. HYOUK RYEOL CHOI, Ph.D. |
SUNGKYUNKWAN UNIVERSITY |
Emerging Areas of Laboratory Automation |
| MP21 |
Continuous hydrophoretic separation using anisotropic microfluidic obstacles |
Mr. Sungyoung Choi, Ph.D. |
KAIST |
Detection & Separation |
| MP22 |
Overcoming LIMS Challenges in Genomics Research |
Mr. Louis Ciabattoni, B.S. |
Ocimum Biosolutions |
Emerging Areas of Laboratory Automation |
| MP23 |
Contactless conductivity detection: a new tool for monitoring biomolecular interactions on microfluidic devices |
Wendell Coltro, Ph.D. |
University of Sao Paulo |
Detection & Separation |
| MP24 |
Nucleic acid encoded peptide libraries. Application to proteases, kinases and cell-based assays. |
Juan Diaz-Mochon, Ph.D. |
Uni Edinburgh |
High-Throughput Technologies |
| MP25 |
Patterned Tissue Construct in a Microfluidic Based Bioreactor System
|
Michael Dinh |
The University of Oklahoma |
Micro- & Nanotechnologies |
| MP26 |
Microchip DNA Extraction with Magnetically-controlled Silica Beads in an Unpacked Glass Microchip |
Gabriela Duarte, M.D. |
University of Sao Carlos |
Detection & Separation |
| MP27 |
Acoustic manipulation of cells and particles |
Mikael Evander, Ph.D.,M.S. |
Dept. of Electrical Measurements, Lund University |
Micro- & Nanotechnologies |
| MP28 |
Engineering an Affordable and Handheld Nucleic Acid Dipstick System Prototype for Rapid Field Pathogen Detection |
David Geb |
Los Alamos National Laboratory |
High-Throughput Technologies |
| MP29 |
<b>Highly sensitive on-chip sub-micrometer scattering cytometer module - for implementation in automated high throughput devices.</b> |
Thomas Glasdam Jensen, M.S. |
Department of Micro and Nanotechnology, Technical University |
Detection & Separation |
| MP30 |
Reusable biosensor based on magnetic beads and electrochemical detection |
Neus Godino, B.S. |
Instituto De Microelectrnica De Barcelona, IMB-CNM (CSIC) |
Micro- & Nanotechnologies |
| MP31 |
Selectively Packing Silica Microbeads into Microfluidic Channels toward Electroosmotic Pumping and LC Separations |
Maojun Gong |
University of Illinois at Urbana-Champaign |
Micro- & Nanotechnologies |
| MP32 |
Fully Automated Approach of a High Throughput Microinjection System |
Mr. Siegfried Graf, M.S. |
CSEM Central Switzerland |
High-Throughput Technologies |
| MP33 |
Artery-on-a-Chip Technology – A Platform for Structural and Functional Assessment of Small Blood Vessels |
Axel Guenther, Ph.D. |
University of Toronto |
Micro- & Nanotechnologies |
| MP34 |
Workflow engine with dynamic constraint solving scheduler for laboratory automation |
Daniel Hecht |
Wiesbaden Computer Integrated Laboratory (WICIL) |
Informatics |
| MP35 |
Optimizing Robustness of the Membrane-free, Oris™ Cell Migration Assay for High Throughput Screening using the BioTek Synergy™ HT Multi-Mode Microplate Reader |
Paul Held, Ph.D. |
BioTek Instruments |
High-Throughput Technologies |
| MP37 |
Separation and Detection of Peroxynitrite and Other Reactive Nitrogen Species Using a Capillary Electrophoresis Microfluidic Device with Amperometric and Conductivity Detection |
Dr. Matthew Hulvey, Ph.D. |
University of Kansas Pharmaceutical Chemistry |
Detection & Separation |
| MP38 |
3-D Automated Cell Culture Using Existing Hamilton Platform Technologies |
Paul Iazzetti |
Global Cell Solutions, Inc |
High-Throughput Technologies |
| MP39 |
poolMC: Smart pooling of mRNA samples in microarray experiments |
Raghu Kainkaryam, M.S. |
University of Michigan |
High-Throughput Technologies |
| MP40 |
Microfluidic pycnometer for real-time monitoring of aqueous solution in microfluidic channels |
Joo H. Kang, Ph.D. |
Korea Advanced Institute of Science and Technology |
Detection & Separation |
| MP41 |
Nanogap Biosensor for Label-Free Detection of Prostate-Specific Antigen |
Sang Kyu Kim |
University of Science and Technology |
Micro- & Nanotechnologies |
| MP42 |
Isothermal signaling amplification for PCR competitive sensitivity using nanopartilces and nucleases |
Joong Kim, Ph.D. |
Korea Research Institute of Bioscience and Biotechnology |
Micro- & Nanotechnologies |
| MP43 |
Application of a Modular Core System for a flexible Fully Automated Laboratory Platform in Single Flask Handling |
Andre Kleinwaechter, Ph.D. |
Celisca |
High-Throughput Technologies |
| MP44 |
Microarray Expression from Dielectrophoretically Sorted White Blood Cells |
VINDHYA KUNDURU, M.S. |
North Carolina State University |
High-Throughput Technologies |
| MP45 |
Generating Better Biology through the use of BellBrook Labs’ Transcreener® ADP² FP Assay and the BMG LABTECH PHERAstar Plus |
Brad R Larson |
BellBrook Labs |
Detection & Separation |
| MP46 |
Development of a simple cartridge type dispensing module with an integrated backflow stopper |
SANGMIN LEE |
POSTECH |
Micro- & Nanotechnologies |
| MP47 |
Autonomuos assembly of proteoliposomes for nanoprobe-assisted screening of drug candidates against ion-translocating target proteins |
Mr. Thom Leiding, M.S. |
Lund University, Dept. of Biochemistry |
Emerging Areas of Laboratory Automation |
| MP49 |
Electrokinetic concentratation and separation of nanosize RNA, DNA and proteins |
IGOR MEZIC, Ph.D. |
UNIVERSITY O CALIFORNIA, SANTA BARBARA |
Detection & Separation |
| MP50 |
Characterization of Cadmium - Phytochelatins Complexes by Affinity Capillary Electrophoresis |
Agata Miszczak, M.S. |
Warsaw University of Technology |
Detection & Separation |
| MP51 |
Fast LC using a new generation of ultra high pressure, microflow instruments |
David Neyer, Ph.D. |
Eksigent Technologies |
Detection & Separation |
| MP52 |
LC-MS method development for the characterization of low level impurities in modified phosphorothioatediesters oligonucleotides synthesized using solid-phase phosphoramidite approach |
Irena Nikcevic, Ph.D. |
Merck & Co. |
Detection & Separation |
| MP53 |
1400 Dose-Response Curves per Hour—True High-Throughput Secondary Screening |
Joe Olechno |
Labcyte Inc. |
High-Throughput Technologies |
| MP54 |
Powder distribution & weighing system for Library Compounds |
Dr. Clifford Olson, Ph.D. |
Zinsser NA, Inc. |
High-Throughput Technologies |
| MP55 |
DEVICE FOR THE CONTROL OF OXYGEN CONCENTRATION IN MULTIWELL CELL CULTURE PLATES |
Shawn Oppegard, M.S. |
University of Illinois at Chicago |
High-Throughput Technologies |
| MP57 |
Development and Validation of an ICP-MS Method for Quantification of Levothyroxine in Dissolution Studies |
Dimple Pabla, M.S. |
University of Rhode Island |
Detection & Separation |
| MP58 |
Versatile Polymer Microarrays for Selective Cellular Control |
Salvatore Pernagallo, M.S. |
University of Edinburgh |
High-Throughput Technologies |
| MP59 |
Integration of an Automated Workstation for Cell Based Assays Cultured on Synthetic Nanofiber Surfaces For Use With Human Hepatocytes |
MARK ROTHENBERG, Ph.D. |
CORNING LIFE SCIENCES |
High-Throughput Technologies |
| MP60 |
Increased photypic behavior of mesenchymal stem cells on electrospun Poly(e-caprolactone) scaffold |
Tim Ruckh, M.S. |
Colorado State University |
Other |
| MP61 |
Automated Triplex Assay to Assess Cell Viability, Cytotoxicity and Apoptosis |
Sarah Shultz, M.S. |
Promega Corporation |
High-Throughput Technologies |
| MP63 |
DESIGN AND FABRICATION OF A ROBUST MICRO-FLUIDIC LAB-ON-A-CHIP FOR A FULLY AUTOMATED TOTAL ANALYSIS SYSTEM FOR LONG-TERM OPERATION |
Conor Slater |
Dublin City University |
Micro- & Nanotechnologies |
| MP63 |
Re-configurable modular system for microfluidic approaches |
Detlef Snakenborg, Ph.D. |
Technical University of Denmark |
Emerging Areas of Laboratory Automation |
| MP64 |
A Versatile Solution Microarray Technology for High-Throughput Screening of Gene Function |
Hossein Tavana, Ph.D. |
University of Mchigan |
High-Throughput Technologies |
| MP65 |
Iridium Oxide Nanomonitors for Real-Time Clinical Diagnostics |
Mr. Vinu Venkatraman, M.S. |
Portland State University |
Micro- & Nanotechnologies |
| MP66 |
Volume Scaling of the Transcreener® ADP² FP Assay on the BioTek Synergy™2 and 4 Multi-Mode Microplate Readers Allows For Easy Transition From Assay Development to High-Throughput Screening |
Tracy Worzella |
BellBrook Labs |
High-Throughput Technologies |
| MP67 |
Developement of multiscale architecture model-system for high end applications using microcontact printing technique
|
Yamini Yadav, Ph.D. |
Portland State University |
Micro- & Nanotechnologies |
| MP68 |
Screening cell adhesion inhibition molecules using physiologically relevant conditions in a low reagent microfluidic device. |
Dr. Carolyn Conant, Ph.D. |
FLuxion Biosciences |
Emerging Areas of Laboratory Automation |
| MP69 |
INCREASING THE FLEXIBILITY AND RELIABILIY OF DIAGNOSTIC AND COMMERCIAL DNA MICROARRAYS BY MICROFLUIDIC PROCESSING |
Dr. Martin Dufva, Ph.D. |
Technical Unversity of Denmark - Nanotech |
Other |
| MP70 |
i-doT – a new immediate drop on demand technology for highly flexible and automated microarray production |
Tobias Brode |
Fraunhofer Institute Manufacturing Engineering and Automatio |
High-Throughput Technologies |
| MP71 |
Sampling from Surfaces with High Throughput DART Analysis as an alternative to Traditional LC/MS/MS for Determination of Drug Candidates in Biological Fluid |
BRIAN MUSSELMAN, Ph.D. |
IONSENSE, INC. |
Emerging Areas of Laboratory Automation |
| MP72 |
Multi robot clean water automated laboratory, design and implementation. |
Jamie Marsay |
Labman Automation Ltd |
High-Throughput Technologies |
| MP73 |
Practical Assembly of High-Purity Chemical Libraries |
Jiayue Cui |
University of Chicago |
High-Throughput Technologies |
| MP74 |
Direct and quantitative measurement of liquid flow on a microfluidic chip |
Carsten Haber, Ph.D. |
Analytic Advisors |
Micro- & Nanotechnologies |
| MP75 |
Fast pKa screening starting from 3µL of 10mM DMSO stock |
Carsten Haber, Ph.D. |
Analytic Advisors |
High-Throughput Technologies |
| MP76 |
Automated Hit-Picking in a Standard Biosafety Hood |
Justin Provchy |
Amgen |
Other |
| MP77 |
High Throughput Class I & II HLA Allelic Typing Using an Automated SSOP Method with xMAP Technology |
Mr. Mark Hurst |
PerkinElmer Biodiscovery |
High-Throughput Technologies |
| MP78 |
High Throughput Screening Applications for the Determination of Enantiomeric Excess using ESI-MS |
Heidi Fleischer, M.S. |
Center for Life Science Automation-Celisca |
High-Throughput Technologies |
| MP79 |
Population Recording of Ligand-Gated Ion Channels:
High Throughput Electrophysiology with “Plate Reader” Simplicity
|
Cristian Ionescu-Zanetti, Ph.D. |
Fluxion Biosciences |
High-Throughput Technologies |
| MP80 |
Biomarker Screening: Automated Sample Prep for AlphaLISA Assay using JANUS AlphaLISA Workstation
|
Ms. Dianne Brazzill, M.S. |
PerkinElmer, Inc. |
High-Throughput Technologies |
| MP81 |
Verifying assay-ready volume dispensing by mosquito using the Artel MVS |
Ben Schenker |
TTP Labtech |
High-Throughput Technologies |
| MP82 |
High-Throughput Analytics of Therapeutic Proteins |
Olivier Graf |
Novartis Pharma |
High-Throughput Technologies |
| MP83 |
Automation and Control in a Pulp and Paper industry |
Mr. Felippe Domingos, M.B.A. |
Perkinelmer do Brasil Ltda |
Other |
| MP84 |
Automated Pooling of Emulsion PCR for 454 Sequencing |
Todd Hartley, B.S. |
SAIC Frederick |
Emerging Areas of Laboratory Automation |
| MP85 |
COMPLETE AUTOMATED SOLUTION TO LABOR INTENSIVE HIGH CONTENT SCREENING |
TODD SMITH, B.S. |
MERCK & CO. INC. |
Emerging Areas of Laboratory Automation |
| MP86 |
Acoustic Droplet Ejection – New Liquid Handling Technology, New Challenges in Automation and Implementation into the Work Flow |
Lynn Rasmussen, M.S. |
SOUTHERN RESEARCH INSTITUTE |
High-Throughput Technologies |
| MP87 |
Small scale automated high throughput chromatographic separations in process development, in-process monitoring and validation of biopharmaceutical production |
Friedle R Juergen |
Atoll GmbH |
High-Throughput Technologies |
| MP88 |
AlphaScreen* cAMP Assay for the Human Epithelial Carcinoma Cell Line, A431, Using the BioRAPTR FRD™ Microfluidic Workstation and PARADIGM™ Detection Platform |
Li Liu, Ph.D. |
Beckman-Coulter Inc. |
High-Throughput Technologies |
| MP89 |
New AlphaLISA Microplate Reader for Improved Homogeneous Immunoassays |
Mr. Petri Kivelä, M.S. |
PerkinElmer Inc. |
Detection & Separation |
| MP90 |
New Microplate Luminescence Counter for Aequorin based Ca2+-coupled GPCR Assays |
Mr. Petri Kivelä, M.S. |
PerkinElmer Inc. |
Detection & Separation |
| MP91 |
Multiplexing with Optically Encoded Suspension Arrays |
Robert Haushalter |
Parallel Synthesis Technologies |
Micro- & Nanotechnologies |
| MP92 |
Successful Application of a Fully Randomized DOE Using Tecan Evo Worklisting and a Visual Basic Interface |
Jennifer Tsoi, B.S. |
Amgen |
Emerging Areas of Laboratory Automation |
| MP93 |
Automation and Detection of LanthaScreen* Kinase Inhibition Assay for Epidermal Growth Factor Receptor using the BioRAPTR FRD™ Microfluidic Workstation and PARADIGM™ Detection Platform |
AMY YODER |
BECKMAN COULTER |
High-Throughput Technologies |
| MP94 |
Purification of Genomic DNA from Whole Blood With Agencourt? Genfind™ v2 Purification System on the Biomek? 3000 Laboratory Automation Workstation
|
Ruth Zhang, Ph.D. |
Beckman Coulter, Inc. |
High-Throughput Technologies |
| MP95 |
Proper Control of the Sample Dilution Process Using a Liquid Handler and Watson Interface |
Kinnari C Pandya |
Amgen Inc. |
Emerging Areas of Laboratory Automation |
| MP96 |
Performance Evaluation of MS-Directed Preparative SFC with Open-Bed Fraction Collection |
JENNIFER LEFLER, B.S. |
THAR SFC |
High-Throughput Technologies |
| Tuesday, January, 27, 2009 |
| Code |
Title |
Author |
Organization |
Track |
| TP01 |
Errors in Liquid Delivery Associated with Pipetting Warm and Cold Liquids |
Mr. Keith Albert, Ph.D. |
ARTEL |
Other |
| TP02 |
Increasing the Productivity of Compound Profiling with a Nanoliter Assay System |
Dr. Michael Biros, M.B.A. |
SpinX Technologies, Inc |
Micro- & Nanotechnologies |
| TP03 |
HTRF® Terbium-Based IP1 Assay Performed on BMG LABTECH's PHERAstar Plus HTS Microplate Reader |
Dr. E.J. Dell, Ph.D. |
BMG LABTECH, Inc. |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
Application of a label-free cell based assay platform for high throughput functional screening of cellular receptors. |
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP04 |
|
Debra Gallant, B.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP05 |
Flexible Workflow Automation for R&D Laboratories |
BERND GOEDE |
UNIVERSITY OF ROSTOCK |
Informatics |
| TP06 |
Automated ELISA Liquid Handling with EL406 Combination Microplate Washer Dispenser |
Paul Held, Ph.D. |
BioTek Instruments |
High-Throughput Technologies |
| TP07 |
Genetic Screens in Human Tumor Cells |
Mr. Mauricio Fernandez, M.S. |
Harvard Medical School - Institute of Proteomics |
High-Throughput Technologies |
| TP08 |
Automated extraction of DNA and PCR setup using a Tecan Freedom EVO® liquid handler |
Tobias Guldberg Frøslev |
Filadelfia |
High-Throughput Technologies |
| TP09 |
Development of High-throughput Agarose Gel Purification System for Specialty Clinical Diagnostic Application |
ALFRED B HADDAD, Other |
MONOGRAM BIOSCIENCES |
Emerging Areas of Laboratory Automation |
| TP10 |
Automation of Total RNA Extraction from Tissue Culture |
Mr. Owen Hardy, M.S. |
Agilent Technologies |
Emerging Areas of Laboratory Automation |
| TP11 |
Evaluation of Rapid ELISA Assay System for the Detection of Melamine Residuals in Milk |
Reija-Riitta Harinen, M.S. |
Thermo Fisher Scientific |
Detection & Separation |
| TP12 |
Invitrogen’s Predictor™ hERG Fluorescence Polarization Assay Using BioTek’s Synergy™ 4 Multi-Mode Microplate Reader with Hybrid Technology™ |
Mr. Xavier Amouretti |
BioTek Instruments |
Detection & Separation |
| TP13 |
Automated Speciman Tube Disposal |
Mark Herrmann |
ARUP LABORATORIES |
Emerging Areas of Laboratory Automation |
| TP14 |
Development of a novel multiplex Signal Detection system for ELISA and DNA typing using BIST Technology. |
Dr. Carl Hilliker, Ph.D. |
Precision System Science |
Detection & Separation |
| TP15 |
Automation aspects of high resolution LC-MS analysis for differential profiling of biological samples |
Serhiy Y Hnatyshyn, Ph.D. |
Bristol-Myers Squibb Co. |
Detection & Separation |
| TP18 |
Rapid Generation of Assay-Ready Serial Dilution Plates using Two-Stage Low Volume Pipetting |
Joby Jenkins |
TTP LabTech |
Emerging Areas of Laboratory Automation |
| TP19 |
The cost of Liquid Handler QC |
Tanya Knaide |
Artel |
Other |
| TP20 |
A Job Scheduling for a Small Scale Clinical Test Platform using Multiple Mobile Robots |
Ja Choon C Koo, Ph.D. |
SUNGKYUNKWAN UNIVERSITY |
Emerging Areas of Laboratory Automation |
| TP21 |
The Sample Submission and Data Reporting Process in the Process Analytics Laboratory (PAL). |
Thomas Kowski |
Amgen |
Informatics |
| TP22 |
A Practical Approach for the real-time Measurement of the Droplet Volume for Drop-on-Demand Dispensers |
Mr. Thomas Krueger, Ph.D. |
Center for Life Science Automation (celisca) |
Emerging Areas of Laboratory Automation |
| TP23 |
Life Science Applications of Microchip Electrophoresis |
Scott A Kuzdzal, Ph.D. |
Shimadzu Scientific Instruments |
Detection & Separation |
| TP24 |
Miniaturization of luminometric assays: Optimizing the performance of common luminescent assays in 384-, and 1536-well plate formats |
Dr. Jorma Lampinen, Ph.D. |
Thermo Fisher Scientific |
High-Throughput Technologies |
| TP25 |
Generate Improved Fluorescence Polarization Screening Results on Perkin Elmer’s EnVision® Microplate Reader through the use of the Transcreener® ADP² FP Assay |
Brad R Larson |
BellBrook Labs |
Detection & Separation |
| TP26 |
For Safe, Simple and Economical Sample Preparation – QUANTOS Automated Powder Dosing |
Dr. JOANNE LAUKART, Ph.D. |
METTLER - TOLEDO AG |
Emerging Areas of Laboratory Automation |
| TP27 |
Development of a time resolved fluorometric assay for the screening of HAUSP inhibitors |
Sunghou Lee |
SangMyung University |
High-Throughput Technologies |
| TP28 |
Integrating Informatics and High Content Screening to Find a Cure for Spinal Cord Injury |
Vance Lemmon, Ph.D. |
Miami Project to Cure Paralysis, Univ. of Miami |
Informatics |
| TP29 |
An Integrated High Throughput Expression Analysis Platform
using Custom qPCR Arrays
|
Ms. Cécile Lesturgeon, M.S. |
Caliper Life Sciences |
High-Throughput Technologies |
| TP30 |
A flow-feedback pumping system with dynamic flow regulation: Achieving Extremely high flow-rate precision under real-world conditions |
Darren Lewis, Ph.D. |
IDEX Health & Science Integrated Solutions Group |
Micro- & Nanotechnologies |
| TP31 |
Creating Dynamic User Interfaces in Liquid Handling using
VBA (Visual Basic for Applications) |
Mr. Nicholas Lin |
Caliper Life Sciences |
Emerging Areas of Laboratory Automation |
| TP32 |
Miniaturized Genomics Assays with an Integrated Liquid Handling System |
David Lorenz |
Labcyte Inc. |
Emerging Areas of Laboratory Automation |
| TP33 |
A Unique Approach to Precisely Dispense Chemicals with Diverse Properties. |
Mr. Matthew Lundy, B.S. |
RIGAKU AUTOMATION INC |
Other |
| TP34 |
Applying Vision Technology to Calculate the Volume of Sample in a Tube |
Mr. Julio Maher, Other |
RTS Life Science |
Emerging Areas of Laboratory Automation |
| TP35 |
An automated microfluidcs solvent extraction system |
Graham Marshall, Ph.D. |
Global FIA |
Detection & Separation |
| TP36 |
LC/MS quality check of compound solutions dispensed in nanoliter volumes from Lundbeck’s compound collection |
Paul McCoy |
Lundbeck Research, USA |
Detection & Separation |
| TP37 |
Palladium/Polymer nanocomposite based Chemiresistive SO2 Sensor |
DIVAKARA MEKA, M.S. |
PORTLAND STATE UNIVERSITY |
Detection & Separation |
| TP38 |
Automation of Solid Phase Microextraction for the Analysis of Pharmaceutical Samples |
Dr. Wayne Mullett, Ph.D. |
Merck Frosst |
High-Throughput Technologies |
| TP39 |
Disposable automation PocketTips and the PlateMate automation offer an efficient solution for nanoliter high-throughput screening |
Tal Murthy, Ph.D. |
Thermo Fisher Scientific |
High-Throughput Technologies |
| TP40 |
Real-time Reaction Monitoring with Micro-Scale HPLC |
David Neyer, Ph.D. |
Eksigent Technologies |
Emerging Areas of Laboratory Automation |
| TP41 |
Visualization of Individual mRNA Molecule at Single Cell Level in High Throughput Formats |
Mr. Quan Nguyen, B.S. |
Panomics |
Detection & Separation |
| TP42 |
Kinase Assay Development using Acoustic Droplet Ejection Technology |
Joe Olechno |
Labcyte Inc. |
High-Throughput Technologies |
| TP43 |
Development Platform for Formulations |
Dr. Clifford Olson, Ph.D. |
Zinsser NA, Inc. |
High-Throughput Technologies |
| TP44 |
Evaluation of 1536-well microplates for compatibility and robustness with FLIPR TETRA® system.
|
Kasia Paczyna, M.S. |
MDS Analytical Technologies |
High-Throughput Technologies |
| TP45 |
A High Performance Microfabricated Gas Chromatographic Column for Detection of Chemical Warfare Agents and Explosives |
Rekha Pai, Ph.D. |
US Naval Research Laboratory |
Detection & Separation |
| TP46 |
Rapid and Reproducible Isolation of DNA and Proteins with Thermo Scientific KingFisher® Flex |
Sini Suomalainen, Other |
Thermo Fisher Scientific |
High-Throughput Technologies |
| TP47 |
On-chip Flow Cytometry and Single-Cell Imaging in Tandem: Integration of a µFACS with a Single-Cell Array |
Kamlesh Patel, Ph.D. |
Sandia National Laboratories |
Emerging Areas of Laboratory Automation |
| TP48 |
Nanomonitor Technology: "Lab-on-a-Chip" Device for Health care |
Dr. Shalini Prasad, Ph.D. |
Arizona State University |
Emerging Areas of Laboratory Automation |
| TP49 |
R2D2: Automation System for Accelerating Bioprocess Development |
Ross Pritchett, B.S. |
Genentech, Inc. |
High-Throughput Technologies |
| TP50 |
A High-Throughput Assay To Measure Whole Body Metabolic Rate
Using Zebrafish Larvae |
Ramani Ramchandran, Ph.D. |
Medical College of Wisconsin |
High-Throughput Technologies |
| TP51 |
Handling Form Instable Biological Materials-
A newly designed Grabber for Histological Purposes
|
Mr. Christian Reis |
Fraunhofer IPA |
Emerging Areas of Laboratory Automation |
| TP52 |
Processing of mass surveillance and sample information at a high-throughput laboratory |
Alexander Roth |
UCLA School of Public Health |
Informatics |
| TP53 |
Compare and Contrast Microplate Type in Three Different Assays Using Two Multimode Microplate Readers. |
MARK ROTHENBERG, Ph.D. |
CORNING LIFE SCIENCES |
High-Throughput Technologies |
| TP54 |
Lab-on-a-Chip Device for Continuous-Flow Size-Based Separation of Proteins |
Luigi Sasso |
DTU Nanotech |
Micro- & Nanotechnologies |
| TP55 |
VIRUS INACTIVATION AND EXTRACTION BY MODIFIED RNA TECHNOLOGY (MRT): MADE EASY BY INTRODUCTION OF THE “INTELLIGENT TUBE” |
Dr. Dieter Schimkat, Ph.D. |
STRATEC Biomedical Systems AG |
Detection & Separation |
| TP56 |
A Bona Fide High Throughput Screening Campaign to Identify Agonist Compounds Using the Corning Epic® Label Free Technology |
Dr. Jeffery Scibek, Ph.D. |
Corning, Inc. |
High-Throughput Technologies |
| TP57 |
Automated GPCR Signaling Studies in 1536-well Format Using the Non-lytic, Live-cell GloSensor cAMP Assay Technology |
Sarah Shultz, M.S. |
Promega Corporation |
High-Throughput Technologies |
| TP58 |
A simple method for validation and verification of pipettes mounted on automated liquid handlers. |
Michael Stangegaard, Ph.D. |
University of Copenhagen, Dept of Forensic Medicine, Sect of Forensic Genetics |
High-Throughput Technologies |
| TP59 |
Open Bio-Banking |
Petar Stojadinovic, M.S. |
National University |
Informatics |
| TP60 |
The Representation, Registration, and Retrieval of Substances with Incompletely Defined Chemical Structures. |
Dr. Keith Taylor, Ph.D. |
Symyx |
Informatics |
| TP61 |
Novel Acoustic-Wave Micromixer device for mixing, solubilization and isothermal thawing of microtiter plates |
Michael Travis, B.S. |
Microsonic Systems |
Emerging Areas of Laboratory Automation |
| TP62 |
Rapid Compound Library Synthesis Utilizing Parallel Microwave Technologies |
Noah Tu, M.S. |
ABBOTT LABORATORIES |
High-Throughput Technologies |
| TP63 |
Highthroughput Screening of resolving agents/solvents using Chirosolv-chiral kits |
Niteen Vaidya, Ph.D. |
Chirosolve, Inc. |
High-Throughput Technologies |
| TP64 |
Environmental Stability and Sample Integrity within Automated Sample Stores |
Chris Walsh, B.S. |
RTS Life Science |
Emerging Areas of Laboratory Automation |
| TP65 |
The Next Generation Transcreener® ADP² FP Assay Demonstrates Broader ATP Detection on the Tecan Safire²™ Microplate Reader |
Tracy Worzella |
BellBrook Labs |
High-Throughput Technologies |
| TP66 |
A Novel High Throughput-Compatible Cell Migration Screening Assay using an Acumen® eX3 Microplate Cytometer |
Dr. Paul Wylie, Ph.D. |
TTP LabTech Ltd |
High-Throughput Technologies |
| TP67 |
Using Longitudinal Data to Optimize Automated Liquid Handling Instruments |
Wade Yandell, B.S. |
XDx |
Other |
| TP68 |
Evaluation of pipetting and detection performance in 1536-well format for the FLIPR<sup>TETRA</sup>® system |
Dr. Hongming Zhu, Ph.D. |
MDS |
High-Throughput Technologies |
| TP69 |
Effect of Liquid Handling Variability on HTS Data |
Nathaniel Hentz, Ph.D. |
North Carolina State University, BTEC |
High-Throughput Technologies |
| TP70 |
ALDI: An Integrated Data Analysis System for Lead Discovery |
Mr. William Goode |
Amgen |
Informatics |
| TP71 |
A fast method to predict the molecular formulas in a high resolution mass spectrum via mathematical programming |
KERSTIN THUROW, Ph.D. |
University of Rostock |
Emerging Areas of Laboratory Automation |
| TP73 |
Implementation of Tecan CellerityTM Cell Culture Support for Automated Lead Optimization |
Uwe Mueller, M.B.A.,B.S. |
Merck & Co., Inc. |
Emerging Areas of Laboratory Automation |
| TP74 |
Calibration of the TECAN Freedom EVO®200 Liquid-Handling Robot Using an Automated Balance and an ARTEL Multichannel Verification System® |
Dorian Zoumplis, M.S. |
MedImmune |
Other |
| TP75 |
Quality Checking for High Throughput Chemical Screening |
Jan Wagner |
MPI-CBG |
High-Throughput Technologies |
| TP76 |
Automated Reference Standard Dispensing and Labeling |
Nicholas A Knoepfle |
Medimmune |
Other |
| TP77 |
Phospholipidosis – rationales and screening |
Carsten Haber, Ph.D. |
Analytic Advisors |
High-Throughput Technologies |
| TP78 |
The Microcapillary Protein Crystallization System (MPCS) |
PETER NOLLERT, Ph.D. |
EMERALD BIOSYSTEMS |
High-Throughput Technologies |
| TP79 |
Cyclo-olefin polymer is a superior material for high-density multiwell microtiter plate construction |
Charles Powell, B.S. |
Aurora Biotechnologies |
High-Throughput Technologies |
| TP80 |
LIQUID SAMPLE MANAGEMENT (LSM) ENHANCEMENTS AND THE LAUNCH OF THE SOLAR SYSTEM |
Husam Fayez |
Wyeth, Screening Sciences (Pfizer) |
High-Throughput Technologies |
| TP81 |
Enabling “Plate Reader” Simplicity in High Throughput Electrophysiology through Well Plate Integration with Microfluidics |
Dr. Ian Spencer, Ph.D. |
Fluxion Biosciences Inc |
High-Throughput Technologies |
| TP82 |
Imaging with the DETECT-X microscope |
Mr. Mark Mixon, Ph.D. |
Emerald BioSystems |
Detection & Separation |
| TP83 |
Automating the Hybridoma Development Process: Use of the Velocity11 BioCel1200 for Tandem ELISA and FACS Screening |
Jo-Anne Hongo, M.S. |
Genentech |
High-Throughput Technologies |
| TP84 |
SiLA - Standardization in Lab Automation - an Initiative of Vendors and Users |
Niklaus Graber, Ph.D. |
NOVARTIS PHARMA AG |
Emerging Areas of Laboratory Automation |
| TP85 |
Simple to Use, Walk-Away, Semi-Automation of Applied Biosystems SOLiD™ System Template Bead Preparation with Freedom EVO® and Te-MagS™ from Tecan® |
Karen A Poulter, B.S. |
Life Technologies |
Emerging Areas of Laboratory Automation |
| TP86 |
Automated high throughput chromatographic separations in process development, in-process monitoring and validation of biopharmaceutical production. |
Friedle R Juergen |
Atoll GmbH |
High-Throughput Technologies |
| TP87 |
MultiTox-Fluor Multiplex Cytotoxicity Assay for the Breast Cancer Cell line, MCF7, Using the BioRAPTR FRD™ Microfluidic Workstation and PARADIGM™ Detection Platform |
Li Liu, Ph.D. |
Beckman-Coulter Inc. |
High-Throughput Technologies |
| TP88 |
Application of High Throughput Technologies for Bioprocess Development and Screening of Monoclonal Antibodies Product Quality |
Dr. BAHRAM FATHOLLAHI, Ph.D. |
CALIPER LIFE SCIENCES |
High-Throughput Technologies |
| TP89 |
Comparing Protein and Nucleic Acid Quantitation Assay Technologies with the New Monochromator Based Microplate Reader |
Mr. Petri Kivelä, M.S. |
PerkinElmer Inc. |
Detection & Separation |
| TP90 |
A New Approach for High Throughput Analytics of Amino Acids |
Heidi Fleischer, M.S. |
Center for Life Science Automation-Celisca |
High-Throughput Technologies |
| TP91 |
High Precision pL-µL Fluid Transfer Devices for Microcontact Printing and Reformatting Applications |
Srinivas Vetcha |
Parallel Synthesis Technologies, Inc |
Micro- & Nanotechnologies |
| TP92 |
Real Time Monitoring of Crystal Habit Changes during a Slurry Conversion |
Mrs. Amy Wagner, B.S. |
Avantium Technologies BV |
Emerging Areas of Laboratory Automation |
| TP93 |
Creating libraries for commercial yeast strains through miniaturization of cloning and transformations using the BioRAPTR FRD™ Microfluidic Workstation |
AMY YODER |
BECKMAN COULTER |
High-Throughput Technologies |
| TP94 |
GeneBLAzer* P2RY11 CHO-K1 DA Assay for Division-Arrested Cells, Using the BioRAPTR FRD™ Microfluidic Workstation and PARADIGM™ Detection Platform |
Ruth Zhang, Ph.D. |
Beckman Coulter, Inc. |
High-Throughput Technologies |
| TP95 |
Fluo-4 DirectTM Addition Only Calcium Assay Kit |
Dr. Ronald Herzig, Ph.D. |
Invitrogen |
High-Throughput Technologies |
| TP96 |
Automated Colony Picking of GFP Expressing Bacteria Using Norgren System’s CP2700 Colony Picker |
Dr. Timothy Vincent, Ph.D. |
Appalachian Electronic Equipment |
High-Throughput Technologies |
