Data_
Structures_And_Problem_Solving_
Using_
C___2nd_ed_-_Mark_Weiss
pdf In response to a complaint we received under the US Digital Millennium Copyright Act (DMCA), we have removed this result. 2009-02-28 07:54:08 - 65 MB
Video results for: data structures using cMore results from video
GCCS97 #701 Proceedings of the GCC Developers Summit 2007 From http://ols.108.redhat.com/2007/GCC-Reprints/GCC2007-Proceedings.pdf . (GIMPLE tree based) (More) From http://ols.108.redhat.com/2007/GCC-Reprints/GCC2007-Proceedings.pdf . (GIMPLE tree based) is quite low level, needs to be adressed in C (thru numerous macros), avoiding the overhead of generic runtime machineries21 ; the practical way to efficiently interface all of G.C.C internals is indeed to generate specialized code, tightly dependent upon G.C.C data structures. Hence using a foreign runtime would create a significant impedance mismatch. Dynamic runtime code generation is possible by generating (during static analysis) a C source file, compiling it as a shared object, and dynamically loading it -thru the libtool dynamic loader (a portable wrapper around dlopen). Such shared objects are never released (no dlclose). 2.3 Basilys objects and (Less)
From axons to tracts: A journey through the brain's wiring Created by Luis Concha and Daniel Torres University of Alberta, Canada. Please note: This work is (More) Created by Luis Concha and Daniel Torres University of Alberta, Canada. Please note: This work is licensed using Creative Commons Attribution-Noncommercial-Share Alike 3.0 License. Please email me if you would like to use this video. Note: Send email to my gmail account (below). lconcha __ at ___ gmail.com http://lconcha.googlepages.com/ The complex circuitry interconnecting different areas in the brain, known collectively as white matter, is composed of millions of axons organized into fascicles and bundles. Upon macroscopic examination of sections of the brain, it is difficult to discern the orientation of the fibers. The same is true for conventional imaging modalities. However, recent advancements in magnetic resonance imaging (MRI) make such task possible in a live subject. By sensitizing an otherwise typical MRI sequence to the diffusion of water molecules it is possible to measure their diffusion coefficient in a given direction1. Normally, the axonal membrane and myelin sheaths pose barriers to the movement of water molecules and, thus, they diffuse preferentially along the axon2. Therefore, the direction of white matter bundles can be elucidated by determining the principal diffusivity of water. The three-dimensional representation of the diffusion coefficient can be given by a tensor and its mathematical decomposition provides the direction of the tracts3; this MRI technique is known as diffusion tensor imaging (DTI). By connecting the information acquired with DTI, three-dimensional depictions of white matter fascicles are obtained4. The virtual dissection of white matter bundles is rapidly becoming a valuable tool in clinical research. Our journey begins with a transverse section of tightly packed axons as seen through light microscopy. Although represented as a two-dimensional "slice", we see that these axons in fact resemble tubes. A simulation of water molecules diffusing randomly inside the axons demonstrates how the membranes and myelin hinder their movement across them and shows the preferred diffusion direction --along the axons. The tracts depicted through DTI slowly blend in and we ride along with them. As we zoom out even more, we realize that it is a portion of the corpus callosum connecting the two sides of the brain we were traveling on and the great difference in relative scale of the individual axons becomes evident. The surface of the brain is then shown, as well as the rest of the white matter bundles--a big, apparently chaotic tangle of wires. Finally, the skin covers the brain. With the exception of the simulated water molecules, all the data presented in the animation is obtained through microscopy and MRI. Computer algorithms for the extraction of the cerebral structures and a custom-built graphics engine make our journey through the brain's anatomy possible in a living person. Micrograph courtesy of Dr. Christian Beaulieu, University of Alberta. Music by Mario Mattioli. References: 1. Stejskal, E.O., et al., J. Chem. Phys., 1965. 42: 2. Beaulieu, C., NMR Biomed., 2002. 15:435-55. 3. Basser, P.J., et al., J. Magn. Reson. B, 1994. 103:247-54. 4. Mori, S., et al., NMR Biomed., 2002. 15:468-80. (Less)
Data_
Structures__Algorithms_and_Program_Style_
Using_
C_-_James_F _Korsh
chm In response to a complaint we received under the US Digital Millennium Copyright Act (DMCA), we have removed this result. 2009-02-28 07:54:08 - 2 MB
mvbdndbpr
2008-12-19 - extension: rar - size: 10 MB
mvbdndbpr
Hosted on: rapidshare.com
Drozdek
2009-01-05 - extension: tar - size: 4 MB
Drozdek
Hosted on: rapidshare.com
Data Structures and Algorithms Using C-Sharp.pdf.rar
2008-05-31 - extension: rar - size: 2 MB
Data Structures and Algorithms Using C-Sharp.pdf.rar
If password needed look here: http://www.ebookee.com.cn/Data-
Structures-and-Algorithms-
Using-
C-_130946.html
Hosted on: rapidshare.com