Manticore Search Manual: Quick start guide

Manticore Search 2.x maintains compatibility with Sphinxsearch 2.x and can load existing tables created by Sphinxsearch. In most cases, upgrading is just a matter of replacing the binaries.

Instead of sphinx.conf (in Linux normally located at /etc/sphinxsearch/sphinx.conf) Manticore by default uses /etc/manticoresearch/manticore.conf. It also runs under a different user and use different folders.

Systemd service name has changed from sphinx/sphinxsearch to manticore and the service runs under user manticore (Sphinx was using sphinx or sphinxsearch). It also uses a different folder for the PID file.

The folders used by default are /var/lib/manticore, /var/log/manticore, /var/run/manticore. You can still use the existing Sphinx config, but you need to manually change permissions for /var/lib/sphinxsearch and /var/log/sphinxsearch folders. Or, just rename globally 'sphinx' to 'manticore' in system files. If you use other folders (for data, wordforms files etc.) the ownership must be also switched to user manticore. The pid_file location should be changed to match the manticore.service to /var/run/manticore/searchd.pid.

If you want to use the Manticore folder instead, the table files need to be moved to the new data folder (/var/lib/manticore) and the permissions to be changed to user manticore.

Upgrading from Sphinx / Manticore 2.x to 3.x is not straightforward, because the table storage engine received a massive upgrade and the new searchd can't load older tables and upgrade them to new format on-the-fly.

Manticore Search 3 got a redesigned table storage. Tables created with Manticore/Sphinx 2.x cannot be loaded by Manticore Search 3 without a conversion. Because of the 4GB limitation, a real-time table in 2.x could still have several disk chunks after an optimize operation. After upgrading to 3.x, these tables can now be optimized to 1-disk chunk with the usual OPTIMIZE command. Index files also changed. The only component that didn't get any structural changes is the .spp file (hitlists). .sps (strings/json) and .spm (MVA) are now held by .spb (var-length attributes). The new format has an .spm file present, but it's used for row map (previously it was dedicated for MVA attributes). The new extensions added are .spt (docid lookup), .sphi ( secondary index histograms), .spds (document storage). In case you are using scripts that manipulate table files, they should be adapted for the new file extensions.

The upgrade procedure may differ depending on your setup (number of servers in the cluster, whether you have HA or not etc.), but in general it's about creating new 3.x table versions and replacing your existing ones with them along with replacing older 2.x binaries with the new ones.

There are two special requirements to take care:

Real-time tables need to be flushed using FLUSH RAMCHUNK
Plain tables with kill-lists require adding a new directive in table configuration (see killlist_target)

Manticore Search 3 includes a new tool - index_converter - that can convert Sphinx 2.x / Manticore 2.x tables to 3.x format. index_converter comes in a separate package which should be installed first. Using the convert tool create 3.x versions of your tables. index_converter can write the new files in the existing data folder and backup the old files or it can write the new files to a chosen folder.

If you have a single server:

install manticore-converter package
use index_converter to create new versions of the tables in a different folder than the existing data folder ( using -–output-dir option)
stop existing Manticore/Sphinx, upgrade to 3.0, move the new tables to data folder, start Manticore

To get a minimal downtime, you can copy 2.x tables, config (you'll need to edit paths here for tables, logs and different ports) and binaries to a separate location and start this on a separate port and point your application to it. After upgrade is made to 3.0 and the new server is started, you can point back the application to the normal ports. If all is good, stop the 2.x copy and delete the files to free the space.

If you have a spare box (like a testing or staging server), you can do there first the table upgrade and even install Manticore 3 to perform several tests and if everything is ok copy the new table files to the production server. If you have multiple servers which can be pulled out from production, do it one by one and perform the upgrade on each. For distributed setups, 2.x searchd can work as a master with 3.x nodes, so you can do upgrading on the data nodes first and at the end the master node.

There have been no changes made on how clients should connect to the engine or any change in querying mode or queries behavior.

Kill-lists have been redesigned in Manticore Search 3. In previous versions kill-lists were applied on the result set provided by each previous searched table on query time.

Thus In 2.x the table order at query time mattered. For example if a delta table had a kill-list in order to apply it against the main table the order had to be main, delta (either in a distributed table or in the FROM clause).

In Manticore 3 kill-lists are applied to a table when it's loaded during searchd startup or gets rotated. New directive killlist_target in table configuration specifies target tables and defines which doc ids from the source table should be used for suppression. These can be ids from the defined kill-list, actual doc ids of the table or the both.

Documents from the kill-lists are deleted from the target tables, they are not returned in results even if the search doesn't include the table that provided the kill-lists. Because of that the order of tables for searching does not matter any more. Now delta,main and main,delta will provide the same results.

In previous versions tables were rotated following the order from the configuration file. In Manticore 3 table rotation order is much smarter and works in accordance with killlist targets. Before starting to rotate tables the server looks for chains of tables by killlist_target definitions. It will then first rotate tables not referenced anywhere as kill-lists targets. Next it will rotate tables targeted by already rotated tables and so on. For example if we do indexer --all and we have 3 tables : main, delta_big (which targets at the main) and delta_small (with target at delta_big), first the delta_small is rotated, then delta_big and finally the main. This is to ensure that when a dependent table is rotated it gets the most actual kill-list from other tables.

docinfo - everything is now extern
inplace_docinfo_gap - not needed anymore
mva_updates_pool - MVAs don’t have anymore a dedicated pool for updates, as now they can be updated directly in the blob (see below).

String, JSON and MVA attributes can be updated in Manticore 3.x using UPDATE statement.

In 2.x string attributes required REPLACE, for JSON it was only possible to update scalar properties (as they were fixed-width) and MVAs could be updated using the MVA pool. Now updates are performed directly on the blob component. One setting that may require tuning is attr_update_reserve which allows changing the allocated extra space at the end of the blob used to avoid frequent resizes in case the new values are bigger than the existing values in the blob.

Doc ids used to be UNSIGNED 64-bit integers. Now they are POSITIVE SIGNED 64-bit integers.

Read here about the RT mode

Manticore 3.x recognizes and parses special suffixes which makes easier to use numeric values with special meaning. Common form for them is integer number + literal, like 10k or 100d, but not 40.3s (since 40.3 is not integer), or not 2d 4h (since there are two, not one value). Literals are case-insensitive, so 10W is the same as 10w. There are 2 types of such suffixes currently supported:

Size suffixes - can be used in parameters that define size of something (memory buffer, disk file, limit of RAM, etc. ) in bytes. "Naked" numbers in that places mean literally size in bytes (octets). Size values take suffix k for kilobytes (1k=1024), m for megabytes (1m=1024k), g for gigabytes (1g=1024m) and t for terabytes (1t=1024g).
Time suffixes - can be used in parameters defining some time interval values like delays, timeouts, etc. "Naked" values for those parameters usually have documented scale, and you must know if their numbers, say, 100, means '100 seconds' or '100 milliseconds'. However instead of guessing you just can write suffixed value and it will be fully determined by it's suffix. Time values take suffix us for useconds (microseconds), ms for milliseconds, s for seconds, m for minutes, h for hours, d for days and w for weeks.

index_converter is a tool for converting tables created with Sphinx/Manticore Search 2.x to Manticore Search 3.x table format. The tool can be used in several different ways:

$ index_converter --config /home/myuser/manticore.conf --index tablename

$ index_converter --config /home/myuser/manticore.conf --all

$ index_converter  --path /var/lib/manticoresearch/data --all

New version of the table is written by default in the same folder. Previous version files are saved with .old extension in their name. An exception is .spp (hitlists) file which is the only table component that didn’t have any change in the new format.

You can save the new table version to a different folder using –output-dir option

$ index_converter --config /home/myuser/manticore.conf --all --output-dir /new/path

A special case is for tables containing kill-lists. As the behaviour of how kill-lists works has changed (see killlist_target), the delta table should know which are the target tables for applying the kill-lists. There are 3 ways to have a converted table ready for setting targeted tables for applying kill-lists:

Use -–killlist-target when converting a table

$ index_converter --config /home/myuser/manticore.conf --index deltaindex --killlist-target mainindex:kl

Add killlist_target in the configuration before doing the conversion
use ALTER ... KILLIST_TARGET command after conversion

Here's the complete list of index_converter options:

--config <file> (-c <file> for short) tells index_converter to use the given file as its configuration. Normally, it will look for manticore.conf in the installation directory (e.g. /usr/local/manticore/etc/manticore.conf if installed into /usr/local/sphinx), followed by the current directory you are in when calling index_converter from the shell.
--index specifies which table should be converted
--path - instead of using a config file, a path containing table(s) can be used
--strip-path - strips path from filenames referenced by table: stopwords, exceptions and wordforms
--large-docid - allows to convert documents with ids larger than 2^63 and display a warning, otherwise it will just exit on the large id with an error. This option was added as in Manticore 3.x doc ids are signed bigint, while previously they were unsigned
--output-dir <dir> - writes the new files in a chosen folder rather than the same location as with the existing table files. When this option set, existing table files will remain untouched at their location.
--all - converts all tables from the config
--killlist-target <targets> - sets the target tables for which kill-lists will be applied. This option should be used only in conjunction with --index option

You can install and start Manticore easily in Ubuntu, Centos, Debian, Windows and MacOS or use Manticore as a docker container.

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Ubuntu
Debian
Centos
Windows
MacOS
Docker

📋

wget https://repo.manticoresearch.com/manticore-repo.noarch.deb
sudo dpkg -i manticore-repo.noarch.deb
sudo apt update
sudo apt install manticore manticore-columnar-lib
sudo systemctl start manticore

wget https://repo.manticoresearch.com/manticore-repo.noarch.deb
sudo dpkg -i manticore-repo.noarch.deb
sudo apt update
sudo apt install manticore manticore-columnar-lib
sudo systemctl start manticore

sudo yum install https://repo.manticoresearch.com/manticore-repo.noarch.rpm
sudo yum install manticore manticore-columnar-lib
sudo systemctl start manticore

Download Windows archive from https://manticoresearch.com/install/
Extract all from the archive to C:\Manticore

C:\Manticore\bin\searchd --install --config C:\Manticore\sphinx.conf.in --servicename Manticore

Start Manticore from the Services snap-in of the Microsoft Management Console

brew install manticoresearch
brew services start manticoresearch

docker pull manticoresearch/manticore
docker run -e EXTRA=1 --name manticore -p9306:9306 -p9308:9308 -p9312:9312 -d manticoresearch/manticore

For persisting your data directory read how to use Manticore docker in production

By default Manticore is waiting for your connections on:

port 9306 for MySQL clients
port 9308 for HTTP/HTTPS connections
port 9312 for connections from other Manticore nodes and clients based on Manticore binary API

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SQL
HTTP
PHP
Python
Javascript
Java

📋

mysql -h0 -P9306

HTTP is a stateless protocol so it doesn't require any special connection phase:

curl -s "http://localhost:9308/search"

// https://github.com/manticoresoftware/manticoresearch-php
require_once __DIR__ . '/vendor/autoload.php';
$config = ['host'=>'127.0.0.1','port'=>9308];
$client = new \Manticoresearch\Client($config);

// https://github.com/manticoresoftware/manticoresearch-python
import manticoresearch
config = manticoresearch.Configuration(
    host = "http://127.0.0.1:9308"
)
client =  manticoresearch.ApiClient(config)
indexApi = manticoresearch.IndexApi(client)
searchApi = manticoresearch.SearchApi(client)
utilsApi = manticoresearch.UtilsApi(client)

// https://github.com/manticoresoftware/manticoresearch-javascript
var Manticoresearch = require('manticoresearch');
var client= new Manticoresearch.ApiClient()
client.basePath="http://127.0.0.1:9308";
indexApi = new Manticoresearch.IndexApi(client);
searchApi = new Manticoresearch.SearchApi(client);
utilsApi = new Manticoresearch.UtilsApi(client);

// https://github.com/manticoresoftware/manticoresearch-java
import com.manticoresearch.client.*;
import com.manticoresearch.client.model.*;
import com.manticoresearch.client.api.*;
...
ApiClient client = Configuration.getDefaultApiClient();
client.setBasePath("http://127.0.0.1:9308");
...
IndexApi indexApi = new IndexApi(client);
SearchApi searchApi = new UtilsApi(client);
UtilsApi utilsApi = new UtilsApi(client);

Let's now create a table called "products" with 2 fields:

title - full-text field which will contain our product's title
price - of type "float"

Note that it is possible to omit creating a table with an explicit create statement. For more information, see Auto schema.

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SQL
HTTP
PHP
Python
Javascript
Java

📋

create table products(title text, price float) morphology='stem_en';

POST /cli -d "create table products(title text, price float) morphology='stem_en'"

$index = new \Manticoresearch\Index($client);
$index->setName('products');
$index->create([
    'title'=>['type'=>'text'],
    'price'=>['type'=>'float'],
],['morphology' => 'stem_en']);

utilsApi.sql('create table products(title text, price float) morphology=\'stem_en\'')

res = await utilsApi.sql('create table products(title text, price float) morphology=\'stem_en\'');

utilsApi.sql("create table products(title text, price float) morphology='stem_en'");

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Response

Query OK, 0 rows affected (0.02 sec)

Let's now add few documents to the table:

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SQL
JSON
PHP
Python
Javascript
Java

📋

insert into products(title,price) values ('Crossbody Bag with Tassel', 19.85), ('microfiber sheet set', 19.99), ('Pet Hair Remover Glove', 7.99);

"id":0 or no id forces automatic ID generation.

POST /insert
{
  "index":"products",
  "doc":
  {
    "title" : "Crossbody Bag with Tassel",
    "price" : 19.85
  }
}


POST /insert
{
  "index":"products",
  "doc":
  {
    "title" : "microfiber sheet set",
    "price" : 19.99
  }
}

POST /insert
{
  "index":"products",
  "doc":
  {
    "title" : "Pet Hair Remover Glove",
    "price" : 7.99
  }
}

$index->addDocuments([
        ['title' => 'Crossbody Bag with Tassel', 'price' => 19.85],
        ['title' => 'microfiber sheet set', 'price' => 19.99],
        ['title' => 'Pet Hair Remover Glove', 'price' => 7.99]
]);

indexApi.insert({"index" : "test", "doc" : {"title" : "Crossbody Bag with Tassel", "price" : 19.85}})
indexApi.insert({"index" : "test", "doc" : {"title" : "microfiber sheet set", "price" : 19.99}})
indexApi.insert({"index" : "test", "doc" : {"title" : "Pet Hair Remover Glove", "price" : 7.99}})

res = await indexApi.insert({"index" : "test", "doc" : {"title" : "Crossbody Bag with Tassel", "price" : 19.85}});
res = await indexApi.insert({"index" : "test", "doc" : {"title" : "microfiber sheet set", "price" : 19.99}});
res = await indexApi.insert({"index" : "test", doc" : {"title" : "Pet Hair Remover Glove", "price" : 7.99}});

InsertDocumentRequest newdoc = new InsertDocumentRequest();
HashMap<String,Object> doc = new HashMap<String,Object>(){{
    put("title","Crossbody Bag with Tassel");
    put("price",19.85);
}};
newdoc.index("products").setDoc(doc);
sqlresult = indexApi.insert(newdoc);

newdoc = new InsertDocumentRequest();
doc = new HashMap<String,Object>(){{
    put("title","microfiber sheet set");
    put("price",19.99);
}};
newdoc.index("products").setDoc(doc);
sqlresult = indexApi.insert(newdoc);

newdoc = new InsertDocumentRequest();
doc = new HashMap<String,Object>(){{
    put("title","Pet Hair Remover Glove");
    put("price",7.99);
 }};
newdoc.index("products").setDoc(doc);
indexApi.insert(newdoc);

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Response

Query OK, 3 rows affected (0.01 sec)

Let's find one of the documents. The query we will use is 'remove hair'. As you can see it finds document with title 'Pet Hair Remover Glove' and highlights 'Hair remover' in it even though the query has "remove", not "remover". This is because when we created the table we turned on using English stemming (morphology "stem_en").

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SQL
JSON
PHP
Python
javascript
Java

📋

select id, highlight(), price from products where match('remove hair');

POST /search
{
  "index": "products",
  "query": { "match": { "title": "remove hair" } },
  "highlight":
  {
    "fields": ["title"]
  }
}

$result = $index->search('@title remove hair')->highlight(['title'])->get();
foreach($result as $doc)
{
    echo "Doc ID: ".$doc->getId()."\n";
    echo "Doc Score: ".$doc->getScore()."\n";
    echo "Document fields:\n";
    print_r($doc->getData());
    echo "Highlights: \n";
    print_r($doc->getHighlight());
}

searchApi.search({"index":"myindex","query":{"query_string":"@title remove hair"},"highlight":{"fields":["title"]}})

res = await searchApi.search({"index":"myindex","query":{"query_string":"@title remove hair"}"highlight":{"fields":["title"]}});


query = new HashMap<String,Object>();
query.put("query_string","@title remove hair");
searchRequest = new SearchRequest();
searchRequest.setIndex("forum");
searchRequest.setQuery(query);
HashMap<String,Object> highlight = new HashMap<String,Object>(){{
    put("fields",new String[] {"title"});

}};
searchRequest.setHighlight(highlight);
searchResponse = searchApi.search(searchRequest);

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Response

+---------------------+-------------------------------+----------+
| id                  | highlight()                   | price    |
+---------------------+-------------------------------+----------+
| 1513686608316989452 | Pet <strong>Hair Remover</strong> Glove | 7.990000 |
+---------------------+-------------------------------+----------+
1 row in set (0.00 sec)

{
  "took": 0,
  "timed_out": false,
  "hits": {
    "total": 1,
    "hits": [
      {
        "_id": "1513686608316989452",
        "_score": 1680,
        "_source": {
          "price": 7.99,
          "title": "Pet Hair Remover Glove"
        },
        "highlight": {
          "title": [
            "Pet <strong>Hair Remover</strong> Glove"
          ]
        }
      }
    ]
  }
}

Doc ID: 1513686608316989452
Doc Score: 1680
Document fields:
Array
(
    [price] => 7.99
    [title] => Pet Hair Remover Glove
)
Highlights:
Array
(
    [title] => Array
        (
            [0] => Pet <strong>Hair Remover</strong> Glove
        )
)

{'hits': {'hits': [{u'_id': u'1513686608316989452',
                    u'_score': 1680,
                    u'_source': {u'title': u'Pet Hair Remover Glove', u'price':7.99},
                    u'highlight':{u'title':[u'Pet <strong>Hair Remover</strong> Glove']}}}],
          'total': 1},
 'profile': None,
 'timed_out': False,
 'took': 0}

{"hits": {"hits": [{"_id": "1513686608316989452",
                    "_score": 1680,
                    "_source": {"title": "Pet Hair Remover Glove", "price":7.99},
                    "highlight":{"title":["Pet <strong>Hair Remover</strong> Glove"]}}],
          "total": 1},
 "profile": None,
 "timed_out": False,
 "took": 0}

class SearchResponse {
    took: 84
    timedOut: false
    hits: class SearchResponseHits {
        total: 1
        maxScore: null
        hits: [{_id=1513686608316989452, _score=1, _source={price=7.99, title=Pet Hair Remover Glove}, highlight={title=[Pet <strong>Hair Remover</strong> Glove]}}]
        aggregations: null
    }
    profile: null
}

Let's assume we now want to update the document - change the price to 18.5. This can be done by filtering by any field, but normally you know the document id and update something based on that.

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SQL
JSON
PHP
Python
javascript
Java

📋

update products set price=18.5 where id = 1513686608316989452;

POST /update
{
  "index": "products",
  "id": 1513686608316989452,
  "doc":
  {
    "price": 18.5
  }
}

$doc = [
    'body' => [
        'index' => 'products',
        'id' => 2,
        'doc' => [
            'price' => 18.5
        ]
    ]
];

$response = $client->update($doc);

indexApi = api = manticoresearch.IndexApi(client)
indexApi.update({"index" : "products", "id" : 1513686608316989452, "doc" : {"price":18.5}})

res = await indexApi.update({"index" : "products", "id" : 1513686608316989452, "doc" : {"price":18.5}});

UpdateDocumentRequest updateRequest = new UpdateDocumentRequest();
doc = new HashMap<String,Object >(){{
    put("price",18.5);
}};
updateRequest.index("products").id(1513686608316989452L).setDoc(doc);
indexApi.update(updateRequest);

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Response

Query OK, 1 row affected (0.00 sec)

Let's now delete all documents with price lower than 10.

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SQL
JSON
PHP
Python
javascript
Java

📋

delete from products where price < 10;

POST /delete
{
  "index": "products",
  "query":
  {
    "range":
    {
      "price":
      {
        "lte": 10
      }
    }
  }
}

$result = $index->deleteDocuments(new \Manticoresearch\Query\Range('price',['lte'=>10]));

indexApi.delete({"index" : "products", "query": {"range":{"price":{"lte":10}}}})

res = await indexApi.delete({"index" : "products", "query": {"range":{"price":{"lte":10}}}});

DeleteDocumentRequest deleteRequest = new DeleteDocumentRequest();
query = new HashMap<String,Object>();
query.put("range",new HashMap<String,Object>(){{
    put("range",new HashMap<String,Object>(){{
        put("lte",10);
    }});
}});
deleteRequest.index("products").setQuery(query);
indexApi.delete(deleteRequest);

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Response

Query OK, 1 row affected (0.00 sec)

{
  "_index": "products",
  "deleted": 1
}

Array
(
    [_index] => products
    [deleted] => 1
)

Manticore Search server can be started in several ways, depending on how it was installed.

Migration from Sphinx Search

Sphinx 2.x -> Manticore 2.x

Sphinx 2.x / Manticore 2.x -> Manticore 3.x

Basic upgrade instruction

kill-lists in Sphinx / Manticore 2.x vs Manticore 3.x

Configuration keys removed in Manticore 3.x

Updating var-length attributes in Manticore 3.x

Document IDs in Manticore 3.x

RT mode in Manticore 3.x

Special suffixes since Manticore 3.x

index_converter

Convert one table at a time

Convert all tables

Convert tables found in a folder

Convert kill lists

Complete list of index_converter options

Quick start guide

Install and start Manticore

Connect to Manticore

Create a table

Add documents

Search

Update

Delete

Starting the server