Please download the DCGM installer packages for your distribution below. Note that this version of DCGM requires at least an R418 Tesla driver that can be downloaded from NVIDIA Driver Downloads page.For what's new in DCGM 1.7.2, review the release notes.
phyluce is written to process data/individuals/samples/species in parallel,where possible, to speed execution. Parallelism is achieved through the useof the Python multiprocessing module, and most computations are suited toworkstation-class machines or servers (i.e., rather than clusters). Wherecluster-based analyses are needed, phyluce will produce the necessary outputsfor input to the cluster/program that you are running so that you can setupthe run according to your cluster design, job scheduling system, etc. Clustersare simply too heterogenous to do a good job at this part of the analyticalworkflow.
AKO supports SE groups. Using SE groups, all the clusters can now share the same VRF. Each AKO instance mapped to a unique serviceEngineGroupName. This will be used to push the routes on the SE to reach the pods. Each cluster needs a dedicated SE group, which cannot be shared by any other cluster or workload.
If two Kubernetes clusters have overlapping CIDRs, the SE needs to identify the right gateway for each of the overlapping CIDR groups. This is achieved by specifying the right placement network for the pools that helps the Service Engine place the pools appropriately.
For folks upgrading from jQuery 1.4.4 to 1.7.2 follow the below links and make sure each and every backward incompatible change is addressed in your codebase.1.44 to 1.5 Changelog -15-released/
Thanks for the quick updates jQuery team. It has been only about 6 months since this 1.7.2 update and your team has done an amazing job to release the 1.8.2 version within such a short period. But it often creates a problem where the updates are too fast to keep up with the pace. So, is there a page with all the historical changelog in jQuery versions so that we can track them better at one place.
The ExportSnapshot tool copies all the data related to a snapshot (hfiles, logs, snapshot metadata) to another cluster. The tool executes a Map-Reduce job, similar to distcp, to copy files between the two clusters, and since it works at file-system level the hbase cluster does not have to be online.
While a managed Kubernetes service like Amazon Elastic Kubernetes Service (Amazon EKS) frees you from having to manage infrastructure, the ephemeral nature of applications deployed to a Kubernetes clusters means you need advanced monitoring at the cluster, node, pod, container, and application levels.
The New Relic Kubernetes cluster explorer gives you these infrastructure-centric and application-centric views into your clusters. Monitoring Kubernetes running AWS environments with New Relic provides total visibility, alerting, and dashboards for all Kubernetes entities that live among your applications.
Julia version 1.7.2, the second patch release in the 1.7 series of releases, is now available. You can get binaries for glibc Linux (i686, x86-64, ARMv7, AArch64), musl Linux (x86-64), FreeBSD (x86-64), macOS (x86-64, AArch64), and Windows (32-, 64-bit) at
As a patch release, 1.7.2 contains no new features or breaking changes, only bug fixes, documentation improvements, and performance improvements. You can see the list of commits included since 1.7.1 here. We recommend that anyone currently using 1.7.0 or 1.7.1 upgrade to 1.7.2.
Because Julia is a new language, it is usually not pre-installed on machines such as supercomputing clusters. But it is easy to install yourself both on your own machine and in your supercomputing environment. Here we will briefly cover installing Julia on your own machine, then discuss setting it up yourself on a supercomputer.
If you want to install Julia 1.6.6, you would change 1.7 to 1.6 and 1.7.2 to 1.6.6. In general we recommend using the current stable release of Julia, which you can find out by going to the Julia Downloads page. We also don't recommend using versions of Julia below 1.6, which are no longer compatible with ITensors.jl as of ITensors 0.3.
TimescaleDB: Included in the 1.7.2 release of ClusterControl, we are proud to announce an expansion of the databases we support to include TimescaleDB, a revolutionary new time-series that leverages the stability, maturity and power of PostgreSQL. Learn more about it here.
The previous tutorials in the series describe how to build a Flink development environment and how to deploy and run Flink applications. This tutorial talks about Flink client operations and focuses on actual operations. For this tutorial, we're using the Flink 1.7.2 community version, the Mac operating system, and the Google Chrome browser.
UPDATE: A new webinar covering these same use cases is now available with updated product versions including Nomad 0.11.1 and Consul 1.7.2. Watch Governance for Multiple Teams Sharing a Nomad Cluster to get an updated view of Nomad multitenancy.
This is a collection of C++ procedures for performing k-meansclustering based on a combination of local search and Lloyd'salgorithm (also known as the k-means algorithm). Given any setof k centers Z, for each center z in Z, let V(z) denote itsneighborhood, that is, the set of data points for which zis the nearest neighbor. Each stage of Lloyd's algorithm movesevery center point z to the centroid of V(z) and then updatesV(z) by recomputing the distance from each point to its nearestcenter. These steps are repeated until convergence.However, Lloyd's algorithm can get stuck in locally minimalsolutions that are far from the optimal. For this reason it iscommon to consider heuristics based on local search, inwhich centers are swapped in and out of an existing solution(typically at random). Such a swap is accepted if it decreasesthe average distortion, and otherwise it is ignored. It is alsopossible to combine these two approaches (Lloyd's algorithm andlocal search), producing a type of hybrid solution.This program provides a number of different algorithms for doingk-means clustering based on these ideas and combinations.Further information can be found in the software documentation and the aboveresearch papers.There are four different procedures for performing k-means,which have been implemented here. The main issue is how theneighbors are computed for each center.Lloyd's: Repeatedly applies Lloyd's algorithm with randomly sampled starting points.Swap: A local search heuristic, which works by performing swaps between existing centers and a set of candidate centers.EZ_Hybrid: A simple hybrid algorithm, which does one swap followed by some number of iterations of Lloyd's.Hybrid: A more complex hybrid of Lloyd's and Swap, which performs some number of swaps followed by some number of iterations of Lloyd's algorithm. To avoid getting trapped in local minima, an approach similar to simulated annealing is included as well. Software: The current version of the software, Version 1.7.2, is providedin a bundle (see below), which contains all the copyright notice,source code, documentation, and a test program. (This version isfunctionally identical to version 1.7.) Unfortunately, the documentationis not very extensive at this time. A Makefile has been provided, whichruns on Unix for Sun Solaris and Redhat Linux, using the g++compiler, and I have compiled it under Microsoft Visual Studio .NET.The directory KMLwin32/bin contains a version compiled for MicrosoftWindows.
Download Currrent Version: (1.0Meg, Release Date: Jan 27, 2010)WinZip: kmlocal-1.7.2.zipTar + zip/gzip: kmlocal-1.7.2.tar.gzDownload Documentation Related Publications Paper: An efficient k-means clustering algorithm:Analysis and implementation,T. Kanungo, D. M. Mount, N. Netanyahu, C. Piatko, R. Silverman,and A. Y. Wu,IEEE Trans. Pattern Analysis and Machine Intelligence,24 (2002), 881-892. Abstract: In k-means clustering we are given a set of n data points ind-dimensional space and an integer k, and the problem is todetermine a set of k points in d-space, called centers,so as to minimize the mean squared distance from each data pointto its nearest center. A popular heuristic for k-meansclustering is Lloyd's algorithm. We present a simple andefficient implementation of Lloyd's k-means clusteringalgorithm, which we call the filtering algorithm. Thisalgorithm is easy to implement, requiring a kd-tree as the onlymajor data structure. We establish the practical efficiency ofthe filtering algorithm in two ways. First, we present adata-sensitive analysis of the algorithm's running time, whichshows that the algorithm runs faster as the separation betweenclusters increases. Second, we present a number of empiricalstudies both on synthetically generated data and on real datasets from applications in color quantization, data compression,and image segmentation.
The VoltDB Operator automates and simplifies deploying and managing VoltDB clusters on Kubernetes. The following are notes related to the individual releases of the VoltDB Operator. A chart listing version compatibility between the Operator, Helm charts and the VoltDB software for current and past releases can be found in the VoltDB software Release Notes. 2b1af7f3a8