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res11 = r.json().set("newbike", "$", ["Deimos", {"crashes": 0}, None])
print(res11) # >>> True
res12 = r.json().get("newbike", "$")
print(res12) # >>> ['["Deimos", { "crashes": 0 }, null]']
res13 = r.json().get("newbike", "$[1].crashes")
print(res13) # >>> ['0']
res14 = r.json().delete("newbike", "$.[-1]")
print(res14) # >>> [1]
res15 = r.json().get("newbike", "$")
print(res15) # >>> [['Deimos', {'crashes': 0}]]The best results are the results you were searching for. Make your AI app smarter and faster with streamlined document search, recommendation systems, semantic caching, and Retrieval Augmented Generation (RAG).
# Create a vector index using the HNSW algorithm, 768 dimension length, and inner product distance metric
> FT.CREATE idx-videos ON HASH PREFIX 1 video: SCHEMA content_vector VECTOR HNSW 6 TYPE FLOAT32 DIM 768 DISTANCE_METRIC IP content TEXT metadata TEXT
# Add a video vector with metadata
> HSET video:0 content_vector "\xa4q\t=\xc1\xdes\xbdZ$<\xbd\xd5\xc1\x99<b\xf0\xf2<x[...\xf8<" content "SUMMARY:\nThe video discusses the limitations of MySQL at scale and introduces Redis Enterprise" metadata "{\"id\":\"FQzlq91g7mg\",\"link\":\"https://www.youtube.com/watch?v=FQzlq91g7mg\",\"title\":\"Redis + MySQL in 60 Seconds\"}"
(integer) 3
# Search for videos using a similar vector and the K-nearest neighbors algorithm
> FT.SEARCH idx-videos "* => [KNN 3 @content_vector $vector AS vector_score]" RETURN 3 metadata content vector_score SORTBY vector_score LIMIT 0 3 PARAMS 2 vector "\b[\xb7;\x81\x12\x9c\xbc\xc6!...\xfe<" DIALECT 2Use Redis as your NoSQL database to build fast, reliable apps that make five-9s uptime look easy.
# Create an index. In this example, all JSON documents with the key prefix 'user:' will be indexed.
rs = r.ft("idx:users")
rs.create_index(
schema,
definition=IndexDefinition(
prefix=["user:"], index_type=IndexType.JSON
)
)
# Use JSON.SET to set each user value at the specified path.
r.json().set("user:1", Path.root_path(), user1)
r.json().set("user:2", Path.root_path(), user2)
r.json().set("user:3", Path.root_path(), user3)
# Find the user Paul and filter the results by age.
res = rs.search(
Query("Paul @age:[30 40]")
)
# Result:
# {1 total, docs: [Document {'id': 'user:3', 'payload': None, 'json': '{"name":"Paul Zamir","email":"[email protected]","age":35,"city":"Tel Aviv"}'}]}
# b'OK'
# Create an index. In this example, all JSON documents with the key prefix 'user:' will be indexed.
rs = r.ft("idx:users")
rs.create_index(
schema,
definition=IndexDefinition(
prefix=["user:"], index_type=IndexType.JSON
)
)
# Use JSON.SET to set each user value at the specified path.
r.json().set("user:1", Path.root_path(), user1)
r.json().set("user:2", Path.root_path(), user2)
r.json().set("user:3", Path.root_path(), user3)
# Find the user Paul and filter the results by age.
res = rs.search(
Query("Paul @age:[30 40]")
)
# Result:
# {1 total, docs: [Document {'id': 'user:3', 'payload': None, 'json': '{"name":"Paul Zamir","email":"[email protected]","age":35,"city":"Tel Aviv"}'}]}
# b'OK'
# Create an index. In this example, all JSON documents with the key prefix 'user:' will be indexed.
rs = r.ft("idx:users")
rs.create_index(
schema,
definition=IndexDefinition(
prefix=["user:"], index_type=IndexType.JSON
)
)
# Use JSON.SET to set each user value at the specified path.
r.json().set("user:1", Path.root_path(), user1)
r.json().set("user:2", Path.root_path(), user2)
r.json().set("user:3", Path.root_path(), user3)
# Find the user Paul and filter the results by age.
res = rs.search(
Query("Paul @age:[30 40]")
)
# Result:
# {1 total, docs: [Document {'id': 'user:3', 'payload': None, 'json': '{"name":"Paul Zamir","email":"[email protected]","age":35,"city":"Tel Aviv"}'}]}
# b'OK'
set dummy $ac_prog;
ac_word=$2
set dummy $ac_tool_prefix;
ac_word=$2public enum Gender
{
Male,
Female
}
//Set the randomizer seed if you wish to generate repeatable data sets.
Randomizer.Seed = new Random(8675309);
var fruit = new[] { "apple", "banana", "orange", "strawberry", "kiwi" };
var orderIds = 0;
var testOrders = new Faker()
//Ensure all properties have rules. By default, StrictMode is false
//Set a global policy by using Faker.DefaultStrictMode
.StrictMode(true)
//OrderId is deterministic
.RuleFor(o => o.OrderId, f => orderIds++)
//Pick some fruit from a basket
.RuleFor(o => o.Item, f => f.PickRandom(fruit))
//A random quantity from 1 to 10
.RuleFor(o => o.Quantity, f => f.Random.Number(1, 10))
//A nullable int? with 80% probability of being null.
//The .OrNull extension is in the Bogus.Extensions namespace.
.RuleFor(o => o.LotNumber, f => f.Random.Int(0, 100).OrNull(f, .8f));
var userIds = 0;
var testUsers = new Faker()
//Optional: Call for objects that have complex initialization
.CustomInstantiator(f => new User(userIds++, f.Random.Replace("###-##-####")))
//Use an enum outside scope.
.RuleFor(u => u.Gender, f => f.PickRandom())
//Basic rules using built-in generators
.RuleFor(u => u.FirstName, (f, u) => f.Name.FirstName(u.Gender))
.RuleFor(u => u.LastName, (f, u) => f.Name.LastName(u.Gender))
.RuleFor(u => u.Avatar, f => f.Internet.Avatar())
.RuleFor(u => u.UserName, (f, u) => f.Internet.UserName(u.FirstName, u.LastName))
.RuleFor(u => u.Email, (f, u) => f.Internet.Email(u.FirstName, u.LastName))
.RuleFor(u => u.SomethingUnique, f => $"Value {f.UniqueIndex}")
//Use a method outside scope.
.RuleFor(u => u.CartId, f => Guid.NewGuid())
//Compound property with context, use the first/last name properties
.RuleFor(u => u.FullName, (f, u) => u.FirstName + " " + u.LastName)
//And composability of a complex collection.
.RuleFor(u => u.Orders, f => testOrders.Generate(3).ToList())
//Optional: After all rules are applied finish with the following action
.FinishWith((f, u) =>
{
Console.WriteLine("User Created! Id={0}", u.Id);
});
var user = testUsers.Generate();
Console.WriteLine(user.DumpAsJson()); std::function
f {[&f](int i){
// do something
}},
dummy((f(3), nullptr));
Flowdesk implements Redis for real-time analytics, achieving 10x faster query performance and 50% reduction in infrastructure costs.
Ekata uses Auto Tiering, which requires 70% less of the expensive DRAM storage they needed before Redis.
Redis allows Niantic to use less overhead to balance their server load and offer great player experiences.
Ulta implements Redis to enhance customer experience, achieving 50% reduction in response time and scaling to handle more than 300,000 transactions per second.
iFood boosts performance and scalability with Redis, achieving a 50% reduction in latency and a 3x increase in throughput for its food delivery platform.
