Matlab 2013 64 Bit ~UPD~ Full 57
Version 7.3 MAT-files use an HDF5-based format that stores datain compressed chunks. The time required to load part of a variablefrom a Version 7.3 MAT-file depends on how that data is stored acrossone or more chunks. Each chunk that contains any portion of the datayou want to load must be fully uncompressed to access the data. Rechunkingyour data can improve the performance of the load operation. To rechunkdata, use the HDF5 command-line tools, which are part of the HDF5distribution.
matlab 2013 64 bit full 57
First it gave a error that it could not find GLIBCXX_3.4.15. Which was not part of the /usr/local/MATLAB/R2013a/sys/os/glnxa64/libstdc++.so.6. I found this thread /usr/lib/libstdc++.so.6: version `GLIBCXX_3.4.15' not found and succesfully created a symbolic link ln -s /usr/lib/x86_64-linux-gnu/libstdc++.so.6.0.17 libstdc++.so.6 in /usr/local/MATLAB/R2013a/sys/os/glnxa64
Look at this line gcc -O -pthread -shared -Wl,--version-script,/usr/local/MATLAB/R2013a/extern/lib/glnxa64/mexFunction.map -Wl,--no-undefined -o "tload3.mexa64" tload3.o -Wl,-rpath-link,/usr/local/MATLAB/R2013a/bin/glnxa64 -L/usr/local/MATLAB/R2013a/bin/glnxa64 -lmx -lmex -lmat -lm -lstdc++.
The options with L are the places where gcc/the linker looks for libraries. Id sugest trying to put the symlink in /usr/local/MATLAB/R2013a/bin/glnxa64 ( libstdc++.so.6 is there in 2012a), and start matlab from a terminal, it spits some errors there. Or add the new folder as a CLIB argument.
I am trying to build a dll with visual studio so I can use it in matlab ...I tried thausand codes with no solution !!! I am working on matlab 2013(32and64) and VS2010 !I tried for example to write the code this way ...
In January 2011, NIST published SP800-131A, which specified a move from the then-current minimum of 80-bit security (provided by SHA-1) allowable for federal government use until the end of 2013, to 112-bit security (provided by SHA-2) being both the minimum requirement (starting in 2014) and the recommended security level (starting from the publication date in 2011).
In July 2012, NIST revised SP800-57, which provides guidance for cryptographic key management. The publication disallowed creation of digital signatures with a hash security lower than 112 bits after 2013. The previous revision from 2007 specified the cutoff to be the end of 2010. In August 2012, NIST revised SP800-107 in the same manner.
Increased interest in cryptographic hash analysis during the SHA-3 competition produced several new attacks on the SHA-2 family, the best of which are given in the table below. Only the collision attacks are of practical complexity; none of the attacks extend to the full round hash function.
As of December 2013[update], there are over 1300 validated implementations of SHA-256 and over 900 of SHA-512, with only 5 of them being capable of handling messages with a length in bits not a multiple of eight while supporting both variants.
In the file below, reflist.txt consists of full paths to a number of soundfiles, which are then written to fpdbase.mat. (Note that in this case, the "filenames" in reflist are actually URLs, which can be loaded thanks to special functionality built in to mpg123; this won't work for other file types, and normally reflist would just contain regular file names). See the Usage section below for additional options.
Only a small number of CUDA threads are now required to manage the full memory bandwidth of H100 using the new Tensor Memory Accelerator, while most other CUDA threads can be focused on general-purpose computations, such as pre-processing and post-processing data for the new generation of Tensor Cores.
NVIDIA asynchronous transaction barriers enables general-purpose CUDA threads and on-chip accelerators within a cluster to synchronize efficiently, even if they reside on separate SMs. All these new features enable every user and application to use all units of their H100 GPUs fully at all times, making H100 the most powerful, most programmable, and power-efficient NVIDIA GPU to date.
Figure 3 shows a full GH100 GPU with 144 SMs. The H100 SXM5 GPU has 132 SMs, and the PCIe version has 114 SMs. The H100 GPUs are primarily built for executing data center and edge compute workloads for AI, HPC, and data analytics, but not graphics processing. Only two TPCs in both the SXM5 and PCIe H100 GPUs are graphics-capable (that is, they can run vertex, geometry, and pixel shaders).
Whereas many experiments simply measure effects or aftereffects of adaptation, others focus on measuring the time course of the adaptive changes (e.g., Mei, Dong, & Bao, 2017; Patterson, Wissig, & Kohn, 2013; Pavan, Marotti, & Campana, 2012). For example, it can be important to characterize the conditions under which adaptation is faster or slower, or whether certain individuals adapt more slowly or rapidly. The main challenge to studying the time course of visual adaptation is that experiments generally take a long time; repeated observations are required over a large portion of the time course, which itself can run many minutes. Hence, efficient methods to measure changes over time may be particularly valuable in this case.
Here we build upon the work of Zhao, Lesmes, and Lu (2019), to carefully evaluate the performance of the minimum entropy approach and compare it to the match probability method and other methods. We do this in two simulation studies, which also shed light on how optimal designs vary as a function of the specific shape of the adaptation time course that is being estimated. In particular, we extend the minimum entropy method from the domain of light adaptation to the domain of contrast adaptation, which has a differently shaped psychometric function than that explored in the previous work. We provide a different and simplified computational framework in which the optimal stimuli are determined. In addition, we consider the easy-to-implement match probability method as a fast alternative and evaluate its performance in the domain of contrast adaptation.
Not that in addition to psychophysical research, adaptive design has also been used for cognitive modeling and psychometrics research. In the former context, Cavagnaro et al. (2010) studied a mutual information based approach to model discrimination in cognitive science (Cavagnaro, Myung, Pitt, & Kujala, 2010; Cavagnaro, Pitt, & Myung, 2011; Myung, Cavagnaro, & Pitt, 2013). In the latter context, the continuous entropy method (Wang & Chang, 2011) was studied in multidimensional adaptive achievement tests.