CreateStreamInput

Struct CreateStreamInput 

Source
#[non_exhaustive]
pub struct CreateStreamInput { pub name: StreamName, pub config: Option<StreamConfig>, pub idempotency_token: String, }
Expand description

Input for create_stream operation.

Fields (Non-exhaustive)§

This struct is marked as non-exhaustive
Non-exhaustive structs could have additional fields added in future. Therefore, non-exhaustive structs cannot be constructed in external crates using the traditional Struct { .. } syntax; cannot be matched against without a wildcard ..; and struct update syntax will not work.
§name: StreamName

Stream name.

§config: Option<StreamConfig>

Configuration for the stream.

See StreamConfig for defaults.

§idempotency_token: String

Idempotency token for the operation.

When a request is retried, the same token is reused, causing the server to return the original response instead of performing the operation again.

Defaults to a random UUID.

Implementations§

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impl CreateStreamInput

Source

pub fn new(name: StreamName) -> Self

Create a new CreateStreamInput with the given stream name.

Examples found in repository?
examples/create_stream.rs (line 23)
10async fn main() -> Result<(), Box<dyn std::error::Error>> {
11    let access_token =
12        std::env::var("S2_ACCESS_TOKEN").map_err(|_| "S2_ACCESS_TOKEN env var not set")?;
13    let basin_name: BasinName = std::env::var("S2_BASIN")
14        .map_err(|_| "S2_BASIN env var not set")?
15        .parse()?;
16    let stream_name: StreamName = std::env::var("S2_STREAM")
17        .map_err(|_| "S2_STREAM env var not set")?
18        .parse()?;
19
20    let s2 = S2::new(S2Config::new(access_token))?;
21    let basin = s2.basin(basin_name);
22
23    let input = CreateStreamInput::new(stream_name.clone()).with_config(
24        StreamConfig::new().with_timestamping(
25            TimestampingConfig::new().with_mode(TimestampingMode::ClientRequire),
26        ),
27    );
28    let stream_info = basin.create_stream(input).await?;
29    println!("{stream_info:#?}");
30
31    let stream_config = basin.get_stream_config(stream_name).await?;
32    println!("{stream_config:#?}");
33
34    Ok(())
35}
More examples
Hide additional examples
examples/docs_account_and_basins.rs (line 52)
17async fn main() -> Result<(), Box<dyn std::error::Error>> {
18    let token = std::env::var("S2_ACCESS_TOKEN")?;
19    let basin_name: BasinName = std::env::var("S2_BASIN")?.parse()?;
20
21    let client = S2::new(S2Config::new(token))?;
22
23    // ANCHOR: basin-operations
24    // List basins
25    let basins = client.list_basins(ListBasinsInput::new()).await?;
26
27    // Create a basin
28    client
29        .create_basin(CreateBasinInput::new("my-events".parse()?))
30        .await?;
31
32    // Get configuration
33    let config = client.get_basin_config("my-events".parse()?).await?;
34
35    // Delete
36    client
37        .delete_basin(DeleteBasinInput::new("my-events".parse()?))
38        .await?;
39    // ANCHOR_END: basin-operations
40    println!("Basins: {:?}, config: {:?}", basins, config);
41
42    let basin = client.basin(basin_name);
43
44    // ANCHOR: stream-operations
45    // List streams
46    let streams = basin
47        .list_streams(ListStreamsInput::new().with_prefix("user-".parse()?))
48        .await?;
49
50    // Create a stream
51    basin
52        .create_stream(CreateStreamInput::new("user-actions".parse()?))
53        .await?;
54
55    // Get configuration
56    let config = basin.get_stream_config("user-actions".parse()?).await?;
57
58    // Delete
59    basin
60        .delete_stream(DeleteStreamInput::new("user-actions".parse()?))
61        .await?;
62    // ANCHOR_END: stream-operations
63    println!("Streams: {:?}, config: {:?}", streams, config);
64
65    // ANCHOR: access-token-basic
66    // List tokens (returns metadata, not the secret)
67    let tokens = client.list_access_tokens(Default::default()).await?;
68
69    // Issue a token scoped to streams under "users/1234/"
70    let result = client
71        .issue_access_token(
72            IssueAccessTokenInput::new(
73                "user-1234-rw-token".parse()?,
74                AccessTokenScopeInput::from_op_group_perms(
75                    OperationGroupPermissions::new()
76                        .with_stream(ReadWritePermissions::read_write()),
77                )
78                .with_basins(BasinMatcher::Prefix("".parse()?)) // all basins
79                .with_streams(StreamMatcher::Prefix("users/1234/".parse()?)),
80            )
81            .with_expires_at("2027-01-01T00:00:00Z".parse()?),
82        )
83        .await?;
84
85    // Revoke a token
86    client
87        .revoke_access_token("user-1234-rw-token".parse()?)
88        .await?;
89    // ANCHOR_END: access-token-basic
90    println!("Tokens: {:?}, issued: {:?}", tokens, result);
91
92    // ANCHOR: access-token-restricted
93    client
94        .issue_access_token(IssueAccessTokenInput::new(
95            "restricted-token".parse()?,
96            AccessTokenScopeInput::from_op_group_perms(
97                OperationGroupPermissions::new().with_stream(ReadWritePermissions::read_only()),
98            )
99            .with_basins(BasinMatcher::Exact("production".parse()?))
100            .with_streams(StreamMatcher::Prefix("logs/".parse()?)),
101        ))
102        .await?;
103    // ANCHOR_END: access-token-restricted
104
105    // Pagination example - not executed by default
106    if false {
107        // ANCHOR: pagination
108        // Iterate through all streams with automatic pagination
109        let mut stream = basin.list_all_streams(ListAllStreamsInput::new());
110        while let Some(info) = stream.next().await {
111            let info = info?;
112            println!("{}", info.name);
113        }
114        // ANCHOR_END: pagination
115    }
116
117    Ok(())
118}
examples/docs_streams.rs (line 36)
20async fn main() -> Result<(), Box<dyn std::error::Error>> {
21    let token = std::env::var("S2_ACCESS_TOKEN")?;
22    let basin_name: BasinName = std::env::var("S2_BASIN")?.parse()?;
23
24    let client = S2::new(S2Config::new(token))?;
25    let basin = client.basin(basin_name);
26
27    // Create a temporary stream for examples
28    let stream_name: StreamName = format!(
29        "docs-streams-{}",
30        std::time::SystemTime::now()
31            .duration_since(std::time::UNIX_EPOCH)?
32            .as_millis()
33    )
34    .parse()?;
35    basin
36        .create_stream(s2_sdk::types::CreateStreamInput::new(stream_name.clone()))
37        .await?;
38
39    // ANCHOR: simple-append
40    let stream = basin.stream(stream_name.clone());
41
42    let records = AppendRecordBatch::try_from_iter([
43        AppendRecord::new("first event")?,
44        AppendRecord::new("second event")?,
45    ])?;
46
47    let ack = stream.append(AppendInput::new(records)).await?;
48
49    // ack tells us where the records landed
50    println!(
51        "Wrote records {} through {}",
52        ack.start.seq_num,
53        ack.end.seq_num - 1
54    );
55    // ANCHOR_END: simple-append
56
57    // ANCHOR: simple-read
58    let batch = stream
59        .read(
60            ReadInput::new()
61                .with_start(ReadStart::new().with_from(ReadFrom::SeqNum(0)))
62                .with_stop(ReadStop::new().with_limits(ReadLimits::new().with_count(100))),
63        )
64        .await?;
65
66    for record in batch.records {
67        println!("[{}] {:?}", record.seq_num, record.body);
68    }
69    // ANCHOR_END: simple-read
70
71    // ANCHOR: append-session
72    let session = stream.append_session(AppendSessionConfig::new());
73
74    // Submit a batch - this enqueues it and returns a ticket
75    let records = AppendRecordBatch::try_from_iter([
76        AppendRecord::new("event-1")?,
77        AppendRecord::new("event-2")?,
78    ])?;
79    let ticket = session.submit(AppendInput::new(records)).await?;
80
81    // Wait for durability
82    let ack = ticket.await?;
83    println!("Durable at seqNum {}", ack.start.seq_num);
84
85    session.close().await?;
86    // ANCHOR_END: append-session
87
88    // ANCHOR: producer
89    let producer = stream.producer(
90        ProducerConfig::new()
91            .with_batching(BatchingConfig::new().with_linger(Duration::from_millis(5))),
92    );
93
94    // Submit individual records
95    let ticket = producer.submit(AppendRecord::new("my event")?).await?;
96
97    // Get the exact sequence number
98    let ack = ticket.await?;
99    println!("Record durable at seqNum {}", ack.seq_num);
100
101    producer.close().await?;
102    // ANCHOR_END: producer
103
104    // ANCHOR: check-tail
105    let tail = stream.check_tail().await?;
106    println!("Stream has {} records", tail.seq_num);
107    // ANCHOR_END: check-tail
108
109    // Cleanup
110    basin
111        .delete_stream(s2_sdk::types::DeleteStreamInput::new(stream_name))
112        .await?;
113
114    println!("Streams examples completed");
115
116    // The following read session examples are for documentation snippets only.
117    // They are not executed because they would block waiting for new records.
118    if std::env::var("RUN_READ_SESSIONS").is_err() {
119        return Ok(());
120    }
121
122    // ANCHOR: read-session
123    let mut session = stream
124        .read_session(ReadInput::new().with_start(ReadStart::new().with_from(ReadFrom::SeqNum(0))))
125        .await?;
126
127    while let Some(batch) = session.next().await {
128        let batch = batch?;
129        for record in batch.records {
130            println!("[{}] {:?}", record.seq_num, record.body);
131        }
132    }
133    // ANCHOR_END: read-session
134
135    // ANCHOR: read-session-tail-offset
136    // Start reading from 10 records before the current tail
137    let mut session = stream
138        .read_session(
139            ReadInput::new().with_start(ReadStart::new().with_from(ReadFrom::TailOffset(10))),
140        )
141        .await?;
142
143    while let Some(batch) = session.next().await {
144        let batch = batch?;
145        for record in batch.records {
146            println!("[{}] {:?}", record.seq_num, record.body);
147        }
148    }
149    // ANCHOR_END: read-session-tail-offset
150
151    // ANCHOR: read-session-timestamp
152    // Start reading from a specific timestamp
153    let one_hour_ago = std::time::SystemTime::now()
154        .duration_since(std::time::UNIX_EPOCH)?
155        .as_millis() as u64
156        - 3600 * 1000;
157    let mut session = stream
158        .read_session(
159            ReadInput::new()
160                .with_start(ReadStart::new().with_from(ReadFrom::Timestamp(one_hour_ago))),
161        )
162        .await?;
163
164    while let Some(batch) = session.next().await {
165        let batch = batch?;
166        for record in batch.records {
167            println!("[{}] {:?}", record.seq_num, record.body);
168        }
169    }
170    // ANCHOR_END: read-session-timestamp
171
172    // ANCHOR: read-session-until
173    // Read records until a specific timestamp
174    let one_hour_ago = std::time::SystemTime::now()
175        .duration_since(std::time::UNIX_EPOCH)?
176        .as_millis() as u64
177        - 3600 * 1000;
178    let mut session = stream
179        .read_session(
180            ReadInput::new()
181                .with_start(ReadStart::new().with_from(ReadFrom::SeqNum(0)))
182                .with_stop(ReadStop::new().with_until(..one_hour_ago)),
183        )
184        .await?;
185
186    while let Some(batch) = session.next().await {
187        let batch = batch?;
188        for record in batch.records {
189            println!("[{}] {:?}", record.seq_num, record.body);
190        }
191    }
192    // ANCHOR_END: read-session-until
193
194    // ANCHOR: read-session-wait
195    // Read all available records, and once reaching the current tail, wait an additional 30 seconds
196    // for new ones
197    let mut session = stream
198        .read_session(
199            ReadInput::new()
200                .with_start(ReadStart::new().with_from(ReadFrom::SeqNum(0)))
201                .with_stop(ReadStop::new().with_wait(30)),
202        )
203        .await?;
204
205    while let Some(batch) = session.next().await {
206        let batch = batch?;
207        for record in batch.records {
208            println!("[{}] {:?}", record.seq_num, record.body);
209        }
210    }
211    // ANCHOR_END: read-session-wait
212
213    Ok(())
214}
Source

pub fn with_config(self, config: StreamConfig) -> Self

Set the configuration for the stream.

Examples found in repository?
examples/create_stream.rs (lines 23-27)
10async fn main() -> Result<(), Box<dyn std::error::Error>> {
11    let access_token =
12        std::env::var("S2_ACCESS_TOKEN").map_err(|_| "S2_ACCESS_TOKEN env var not set")?;
13    let basin_name: BasinName = std::env::var("S2_BASIN")
14        .map_err(|_| "S2_BASIN env var not set")?
15        .parse()?;
16    let stream_name: StreamName = std::env::var("S2_STREAM")
17        .map_err(|_| "S2_STREAM env var not set")?
18        .parse()?;
19
20    let s2 = S2::new(S2Config::new(access_token))?;
21    let basin = s2.basin(basin_name);
22
23    let input = CreateStreamInput::new(stream_name.clone()).with_config(
24        StreamConfig::new().with_timestamping(
25            TimestampingConfig::new().with_mode(TimestampingMode::ClientRequire),
26        ),
27    );
28    let stream_info = basin.create_stream(input).await?;
29    println!("{stream_info:#?}");
30
31    let stream_config = basin.get_stream_config(stream_name).await?;
32    println!("{stream_config:#?}");
33
34    Ok(())
35}
Source

pub fn with_idempotency_token( self, idempotency_token: impl Into<String>, ) -> Self

Set the idempotency token for the operation.

Trait Implementations§

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impl Clone for CreateStreamInput

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fn clone(&self) -> CreateStreamInput

Returns a duplicate of the value. Read more
1.0.0 · Source§

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source. Read more
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impl Debug for CreateStreamInput

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fn fmt(&self, f: &mut Formatter<'_>) -> Result

Formats the value using the given formatter. Read more
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impl From<CreateStreamInput> for (CreateStreamRequest, String)

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fn from(value: CreateStreamInput) -> Self

Converts to this type from the input type.

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unsafe fn clone_to_uninit(&self, dest: *mut u8)

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