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changeset 117:abdedf8a8cf2

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author bshanks@bshanks.dyndns.org
date Mon Jul 06 15:43:14 2009 -0700 (16 years ago)
parents bfb4c4377d8a
children 8f12af1c821d
files facAndEquip.pdf facAndEquip.txt grantBody.pdf refs.pdf summary.pdf summary.txt
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2.1 --- /dev/null Thu Jan 01 00:00:00 1970 +0000 2.2 +++ b/facAndEquip.txt Mon Jul 06 15:43:14 2009 -0700 2.3 @@ -0,0 +1,34 @@ 2.4 +\documentclass[11pt,letterpaper]{article} 2.5 + 2.6 +%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% 2.7 +\pagestyle{plain} %% 2.8 +%%%%%%%%%% EXACT 1in MARGINS %%%%%%% %% 2.9 +\setlength{\textwidth}{6.5in} %% %% 2.10 +\setlength{\oddsidemargin}{0in} %% (It is recommended that you %% 2.11 +\setlength{\evensidemargin}{0in} %% not change these parameters, %% 2.12 +\setlength{\textheight}{8.5in} %% at the risk of having your %% 2.13 +\setlength{\topmargin}{0in} %% proposal dismissed on the basis %% 2.14 +\setlength{\headheight}{0in} %% of incorrect formatting!!!) %% 2.15 +\setlength{\headsep}{0in} %% %% 2.16 +\setlength{\footskip}{.5in} %% %% 2.17 +%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %% 2.18 +\newcommand{\required}[1]{\section*{\hfil #1\hfil}} %% 2.19 +\renewcommand{\refname}{\hfil References Cited\hfil} %% 2.20 +\bibliographystyle{plain} %% 2.21 +%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% 2.22 +\usepackage{helvet} 2.23 +\renewcommand{\familydefault}{\sfdefault} 2.24 + 2.25 +\begin{document} 2.26 + 2.27 +== Facilities == 2.28 + 2.29 +The Salk Institute is a world-class biological research institute with excellent facilities available for molecular genetics. The laboratory space available for this project is approximately 1000 square feet that includes computer facilities, equipment necessary for histology, and computer-driven microscopes. 2.30 + 2.31 +Across the street, the University of California at San Diego contains state-of-the-art computing facilities, and an excellent computer science department with some of the world's experts on machine learning and machine vision. 2.32 + 2.33 +== Equipment == 2.34 + 2.35 +This project concerns the development and application of methods for analyzing gene expression data. As such, the facilities needed are principally computers. We have a Dell Precision 4700 computer with two 3 GHz Intel Xeon processors and 8 gigabytes of RAM which will be fully dedicated to the project, and we will acquire more computers upon the commencement of the project. We can also access a shared 32-node cluster of dual Athlon computers with larger amounts of memory, running the Sun Grid Engine. 2.36 + 2.37 +\end{document}
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6.1 --- /dev/null Thu Jan 01 00:00:00 1970 +0000 6.2 +++ b/summary.txt Mon Jul 06 15:43:14 2009 -0700 6.3 @@ -0,0 +1,23 @@ 6.4 +=== Intellectual merit === 6.5 + 6.6 +Modern experimental techniques allow the expression levels of many genes at many locations to be compared. Our goal is to develop automated methods to relate spatial variation in gene expression to anatomy. We want to find marker genes for specific anatomical regions, and also to draw new anatomical maps based on gene expression patterns. We will validate these methods by applying them to 46 anatomical areas within the cerebral cortex, using the Allen Mouse Brain Atlas coronal dataset (ABA). %%This gene expression dataset was generated using ISH, and contains over 4,000 genes. For each gene, a digitized 3-D raster of the expression pattern is available: for each gene, the level of expression at each of 51,533 voxels is recorded. 6.7 + 6.8 +This project has three primary goals:\\ 6.9 + 6.10 +(1) develop an algorithm to screen spatial gene expression data for combinations of marker genes which selectively target anatomical regions.\\ 6.11 + 6.12 +(2) develop an algorithm to suggest new ways of carving up a structure into anatomically distinct regions, based on spatial patterns in gene expression.\\ 6.13 + 6.14 +(3) adapt our tools for the analysis of multi/hyperspectral imaging data from the Geographic Information Systems (GIS) community.\\ 6.15 + 6.16 +We also will create and make publically available a 2-D "flat map" that contains a flattened version of the ABA data, as well as the boundaries of cortical areas. We will use this dataset to validate the algorithms that we develop. 6.17 + 6.18 +Although our particular application involves the 3D spatial distribution of gene expression, the methods we will develop will generalize to any high-dimensional data over points located in a low-dimensional space. In particular, our methods could be applied to the analysis of multi/hyperspectral imaging data. 6.19 + 6.20 +All algorithms that we develop will be implemented in a GPL open-source software toolkit. 6.21 + 6.22 + 6.23 +=== Broader impacts === 6.24 +The algorithm developed in Goal 1 will be applied to each cortical area to find a set of marker genes that uniquely picks out the target area. This will will be useful for experimentation and also drug discovery because marker genes can be used to design interventions which selectively target individual cortical areas. This algorithm will support the development of new neuroanatomical methods; we will find a small panel of genes that can find many of the areal boundaries at once. The algorithm developed in Goal 2 will contribute to the creation of a better cortical map. 6.25 + 6.26 +Our project will draw attention to an area of overlap between the fields of neuroanatomy and geographic information systems (GIS), and may lead to future collaborations between these two fields. The flat map will be useful for other neuroanatomy projects and also as a sample dataset for the machine learning community.