08:00 | Registration |
| Microfluidics & Single Cell Analysis |
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09:00 | High Throughput Microfluidic Single Cell Digital PCR Kevin Heyries, Researcher, University of British Columbia, Canada
We have developed an integrated high throughput microfluidic device for the analysis of 200 single cells per run using digital PCR. We demonstrate the absolute quantification of mRNA transcripts (GAPDH and BCR-ABL) as well as microRNA (miR16) with single cell resolution. |
| Detection, Isolation and Analysis of CTCs/Single Cells |
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09:30 | Quantitation of Reactive Oxygen Species and Oxidative Damage in Single Mammalian Cells. Edgar Arriaga, Professor, University of Minnesota, United States of America
This presentation describes key features of capillary electrophoresis for the analysis of single cells of various shapes. It focuses on the selection and application of molecular probes to target reactive oxygen species and markers of molecular damage. |
10:00 | NanoVelcro-Embedded Microchips for Detection and Isolation of Circulating Tumor Cells: Validation Studies in Oncology Clinic Hsian-Rong Tseng, Professor, Crump Institute for Molecular Imaging, California NanoSystems Institute, University of California-Los Angeles, United States of America
This presentation will introduce a new type of cell-affinity assay that is capable of detecting circulating tumor cells (CTCs) in blood samples collected from metastatic cancer patients. Similar to most of the existing approaches, anti-EpCAM was grafted onto the surfaces to distinguish CTCs from the surrounding hematologic cells. The uniqueness of our technology is the use of nanostructured surfaces, which facilitates local topographical interactionsbetween CTCs and substrates at the very first cell/substrate contacting time point. We demonstrated the ability of these nanostructured substrates to capture CTCs in whole blood samples with significantly improved efficiency and selectivity. |
10:30 | Coffee Break and Networking in the Exhibition Hall |
| Tools & Technologies for Single Cell Analysis |
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11:15 | | Keynote Presentation Membrane Fusion and Imaging in Systems of Increasing Complexity - From Single Vesicles to Single Brain Cells Steven Boxer, Professor, Stanford University, United States of America
Our lab has developed model membrane systems to mimic individual cell membranes, both to study fundamental features and as tools in biotechnology. I will focus on new methods to manipulate these membranes that can be used to target single cells. |
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11:45 | Flexible Patterning of the Cellular Microenvironment for Single Cell Analysis John Collins, Senior Applications Scientist, NanoInk Inc, United States of America
Tip based lithography is a unique and powerful way to fabricate complex scaffolds for investigating cell behavior at single cell levels. Multiplexed deposition of protein and biocompatible polymer features at subcellular sizes enables the fabrication of single cell microenvironmental arrays. |
12:15 | Lunch and Networking in the Exhibition Hall |
13:30 | Poster Viewing Session |
14:15 | Quantitative Analysis of Intercellular Interactions Using Supported Membrane Interfaces Nina Caculitan, Researcher, University of California San Diego, United States of America
Supported membranes interfaced with a T cell as a paradigmatic model yield high information content data of cell behavior during an immune response. This adaptable approach is extendable to other systems to study disease pathology for a cell population. |
14:45 | Detection of Rare Cancer Cell Phenotypes by Single Cell Analysis of Surface Proteins Rajan Kumar, President, Genome Data Systems, Inc., United States of America
Cells with aggressive and metastatic potential are rare and their phenotypes are overwhelmed by more abundant cells. Presence of rare cell phenotypes and differential protein expression in breast and pancreatic cancer cell lines, and in primary and metastatic mouse xenografts were determined using a novel single cell analysis method. |
15:15 | Coffee Break and Networking in the Exhibition Hall |
| Single Cell Analysis in Signalling |
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16:00 | Imaging Molecular Dynamics in Single Embodied Cells Thai Truong, Senior Researcher, California Institute of Technology, United States of America
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16:30 | Quantification Noise in Single Cell Experiments Michael Pfaffl, Professor, Technical University of Munich, Germany
In quantitative single-cell studies, the critical part is the low amount of nucleic acids present and the resulting experimental variations. In addition biological data obtained from heterogeneous tissue are not reflecting the expression behaviour of every single-cell. These variations can be derived from natural biological variance or can be introduced externally. Both have negative effects on the quantification result. The aim of this study is to make quantitative single-cell studies more transparent and reliable in order to fulfil the MIQE guidelines at the single-cell level. |
| Single Cell Genomics/Transcriptomics |
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17:00 | | Keynote Presentation An Approach to Single Cell Protein Analysis Norman Dovichi, Professor, University of Notre Dame, United States of America
Capillary electrophoresis coupled with laser-induced fluorescence has allowed study of proteins from single cells. More recently, the use of high sensitivity mass spectrometers allows the identification of proteins from minute samples, which should have value in single cell analysis. |
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17:30 | Drinks Reception |