TY - JOUR
T1 - An adaptive multirate algorithm for acquisition of fluorescence microscopy data sets
AU - Merryman, Thomas E.
AU - Kovačević, Jelena
N1 - Funding Information:
Manuscript received December 12, 2004; revised May 20, 2005. This work was supported in part by the NSF ITR under Grant EF-0331657. Parts of this material were presented at ICASSP’05, Philadelphia, PA. The associate editor coordinating the review of this manuscript and approving it for publication was Dr. Gaudenz Danuser.
PY - 2005/9
Y1 - 2005/9
N2 - We propose an algorithm for adaptive efficient acquisition of fluorescence microscopy data sets using a multirate (MR) approach. We simulate acquisition as part of a larger system for protein classification based on their subcellular location patterns and, thus, strive to maintain the achieved level of classification accuracy as much as possible. This problem is similar to image compression but unique due to additional restrictions, namely causality; we have access only to the information scanned up to that point. While we do want to acquire fewer samples with as low distortion as possible to achieve compression, our goal is to do so while affecting the overall classification accuracy as little as possible. We achieve this by using an adaptive MR scanning scheme which samples the regions of the image area that hold the most pertinent information. Our results show that we can achieve significant compression which we can then use to aquire faster or to increase space resolution of our data set, all while minimally affecting the classification accuracy of the entire system.
AB - We propose an algorithm for adaptive efficient acquisition of fluorescence microscopy data sets using a multirate (MR) approach. We simulate acquisition as part of a larger system for protein classification based on their subcellular location patterns and, thus, strive to maintain the achieved level of classification accuracy as much as possible. This problem is similar to image compression but unique due to additional restrictions, namely causality; we have access only to the information scanned up to that point. While we do want to acquire fewer samples with as low distortion as possible to achieve compression, our goal is to do so while affecting the overall classification accuracy as little as possible. We achieve this by using an adaptive MR scanning scheme which samples the regions of the image area that hold the most pertinent information. Our results show that we can achieve significant compression which we can then use to aquire faster or to increase space resolution of our data set, all while minimally affecting the classification accuracy of the entire system.
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U2 - 10.1109/TIP.2005.855861
DO - 10.1109/TIP.2005.855861
M3 - Article
C2 - 16190461
AN - SCOPUS:26444552132
SN - 1057-7149
VL - 14
SP - 1246
EP - 1253
JO - IEEE Transactions on Image Processing
JF - IEEE Transactions on Image Processing
IS - 9
ER -