1 00:00:00,180 --> 00:00:03,420 For simplicity purposes of this module. 2 00:00:03,420 --> 00:00:10,110 In this slide we will be considering single site indexer clustering in single site indexer clustering. 3 00:00:11,440 --> 00:00:19,510 Each indexers exchanges the data that it has been received from the forwarders so that at any point 4 00:00:19,510 --> 00:00:21,460 if one index fails. 5 00:00:22,800 --> 00:00:26,040 The data can be retrieved from the other two instances. 6 00:00:26,040 --> 00:00:29,730 To understand how this is actually works. 7 00:00:29,760 --> 00:00:36,750 We need to know more about replication and search factors which will be covering at a later stage because 8 00:00:36,750 --> 00:00:42,870 of the complexity involved in choosing them and the depth of the concept of replication. 9 00:00:43,020 --> 00:00:50,490 Search Factors We go now we understand that single site clustering in Splunk exchanges data between 10 00:00:51,030 --> 00:00:59,520 indexers in order to overcome any data loss or disruption into our search results during an event of 11 00:00:59,520 --> 00:01:01,920 any indexer going down. 12 00:01:03,290 --> 00:01:05,330 Now we got it clear. 13 00:01:05,330 --> 00:01:10,280 Let's move on further down and compare this with our medium architecture. 14 00:01:11,600 --> 00:01:15,080 If we see our medium architecture, this is our medium architecture. 15 00:01:15,080 --> 00:01:22,250 You can see that there are some components like deployment server and heavy forwarder and license manager. 16 00:01:22,280 --> 00:01:25,790 There are three blocks which are new in large enterprise. 17 00:01:27,350 --> 00:01:28,280 As you can see. 18 00:01:29,710 --> 00:01:32,800 These three components are present in the large. 19 00:01:33,960 --> 00:01:36,000 Enterprise of Splunk architecture. 20 00:01:36,000 --> 00:01:43,800 We all know by now that a large deployment of Splunk we must have a deployment server. 21 00:01:45,130 --> 00:01:49,690 For managing this plan universal for orders and also others plan components. 22 00:01:50,110 --> 00:01:58,940 We will help to reduce managing Splunk infrastructure exponentially by having a single deployment server. 23 00:01:58,960 --> 00:02:05,830 Consider an example of having 200 clients and logging them individually to just to change an IP or the 24 00:02:05,830 --> 00:02:06,610 hostname. 25 00:02:07,410 --> 00:02:08,880 Of that instance. 26 00:02:08,880 --> 00:02:11,850 Instead of that, you can push this configuration from deployment. 27 00:02:11,850 --> 00:02:18,750 So probably in 5 minutes rather than logging into 200 different machines one at a time. 28 00:02:20,850 --> 00:02:28,470 The deployment service acts like a boss in an architecture where it talks to all the components across 29 00:02:28,470 --> 00:02:36,990 the architecture and tells each component how to operate and what configurations are deployed on each 30 00:02:36,990 --> 00:02:37,710 component. 31 00:02:37,710 --> 00:02:44,970 And now we can also monitor the health of the components throughout the infrastructure using deployment. 32 00:02:44,970 --> 00:02:45,450 So. 33 00:02:46,900 --> 00:02:49,860 Now we got clear about deployments. 34 00:02:49,870 --> 00:02:55,210 So let's move on to our license manager where we see from the architecture. 35 00:02:55,240 --> 00:02:58,600 It keeps tabs on our license utilization. 36 00:03:00,110 --> 00:03:08,570 And it can also alert based on the license violation on upon reaching a threshold as per alert configurations 37 00:03:08,780 --> 00:03:10,460 of this license usage. 38 00:03:10,640 --> 00:03:12,380 This functionality. 39 00:03:13,440 --> 00:03:21,810 Of License manager is almost identical to non cluster or cluster environment where its only function 40 00:03:21,810 --> 00:03:27,090 is to collect the license usage from all the components and keep track of the violations. 41 00:03:27,120 --> 00:03:31,740 Daily user statistics of our licenses and report them accordingly. 42 00:03:36,250 --> 00:03:43,240 And we also see in this architecture there are heavy forwarders in between universal forwarders or our 43 00:03:43,240 --> 00:03:46,090 data sources and indexers. 44 00:03:51,510 --> 00:03:52,230 This area. 45 00:03:52,230 --> 00:03:58,800 Forwarders are receiving their data from forwarders and passing it and filters some of the. 46 00:04:00,320 --> 00:04:01,100 Events. 47 00:04:02,160 --> 00:04:09,840 And sent it to the index where the index will be receiving the data from these AP forwarder, which 48 00:04:09,840 --> 00:04:17,880 are passed and filter by the EV forwarders, is being received on the indexes and stored on the indexes 49 00:04:17,880 --> 00:04:18,540 itself. 50 00:04:20,120 --> 00:04:28,950 This is a good option and best practice to have a V forwarder in newer architecture of large deployments. 51 00:04:28,970 --> 00:04:33,470 It will add significant value to the Splunk architecture. 52 00:04:36,220 --> 00:04:42,770 By now we are clear with the three architecture small, medium and large enterprises. 53 00:04:42,790 --> 00:04:51,610 Now let us see one of the best architecture of Splunk considering and scaled up version of large deployment.