#![cfg(feature = "streams")] use redis::streams::*; use redis::{Commands, Connection, RedisResult, ToRedisArgs}; mod support; use crate::support::*; use std::collections::BTreeMap; use std::str; use std::thread::sleep; use std::time::Duration; macro_rules! assert_args { ($value:expr, $($args:expr),+) => { let args = $value.to_redis_args(); let strings: Vec<_> = args.iter() .map(|a| str::from_utf8(a.as_ref()).unwrap()) .collect(); assert_eq!(strings, vec![$($args),+]); } } fn xadd(con: &mut Connection) { let _: RedisResult = con.xadd("k1", "1000-0", &[("hello", "world"), ("redis", "streams")]); let _: RedisResult = con.xadd("k1", "1000-1", &[("hello", "world2")]); let _: RedisResult = con.xadd("k2", "2000-0", &[("hello", "world")]); let _: RedisResult = con.xadd("k2", "2000-1", &[("hello", "world2")]); } fn xadd_keyrange(con: &mut Connection, key: &str, start: i32, end: i32) { for _i in start..end { let _: RedisResult = con.xadd(key, "*", &[("h", "w")]); } } #[test] fn test_cmd_options() { // Tests the following command option builders.... // xclaim_options // xread_options // maxlen enum // test read options let empty = StreamClaimOptions::default(); assert_eq!(ToRedisArgs::to_redis_args(&empty).len(), 0); let empty = StreamReadOptions::default(); assert_eq!(ToRedisArgs::to_redis_args(&empty).len(), 0); let opts = StreamClaimOptions::default() .idle(50) .time(500) .retry(3) .with_force() .with_justid(); assert_args!( &opts, "IDLE", "50", "TIME", "500", "RETRYCOUNT", "3", "FORCE", "JUSTID" ); // test maxlen options assert_args!(StreamMaxlen::Approx(10), "MAXLEN", "~", "10"); assert_args!(StreamMaxlen::Equals(10), "MAXLEN", "=", "10"); // test read options let opts = StreamReadOptions::default() .noack() .block(100) .count(200) .group("group-name", "consumer-name"); assert_args!( &opts, "BLOCK", "100", "COUNT", "200", "NOACK", "GROUP", "group-name", "consumer-name" ); // should skip noack because of missing group(,) let opts = StreamReadOptions::default().noack().block(100).count(200); assert_args!(&opts, "BLOCK", "100", "COUNT", "200"); } #[test] fn test_assorted_1() { // Tests the following commands.... // xadd // xadd_map (skip this for now) // xadd_maxlen // xread // xlen let ctx = TestContext::new(); let mut con = ctx.connection(); xadd(&mut con); // smoke test that we get the same id back let result: RedisResult = con.xadd("k0", "1000-0", &[("x", "y")]); assert_eq!(result.unwrap(), "1000-0"); // xread reply let reply: StreamReadReply = con.xread(&["k1", "k2", "k3"], &["0", "0", "0"]).unwrap(); // verify reply contains 2 keys even though we asked for 3 assert_eq!(&reply.keys.len(), &2usize); // verify first key & first id exist assert_eq!(&reply.keys[0].key, "k1"); assert_eq!(&reply.keys[0].ids.len(), &2usize); assert_eq!(&reply.keys[0].ids[0].id, "1000-0"); // lookup the key in StreamId map let hello: Option = reply.keys[0].ids[0].get("hello"); assert_eq!(hello, Some("world".to_string())); // verify the second key was written assert_eq!(&reply.keys[1].key, "k2"); assert_eq!(&reply.keys[1].ids.len(), &2usize); assert_eq!(&reply.keys[1].ids[0].id, "2000-0"); // test xadd_map let mut map: BTreeMap<&str, &str> = BTreeMap::new(); map.insert("ab", "cd"); map.insert("ef", "gh"); map.insert("ij", "kl"); let _: RedisResult = con.xadd_map("k3", "3000-0", map); let reply: StreamRangeReply = con.xrange_all("k3").unwrap(); assert_eq!(reply.ids[0].contains_key(&"ab"), true); assert_eq!(reply.ids[0].contains_key(&"ef"), true); assert_eq!(reply.ids[0].contains_key(&"ij"), true); // test xadd w/ maxlength below... // add 100 things to k4 xadd_keyrange(&mut con, "k4", 0, 100); // test xlen.. should have 100 items let result: RedisResult = con.xlen("k4"); assert_eq!(result, Ok(100)); // test xadd_maxlen let _: RedisResult = con.xadd_maxlen("k4", StreamMaxlen::Equals(10), "*", &[("h", "w")]); let result: RedisResult = con.xlen("k4"); assert_eq!(result, Ok(10)); } #[test] fn test_xgroup_create() { // Tests the following commands.... // xadd // xinfo_stream // xgroup_create // xinfo_groups let ctx = TestContext::new(); let mut con = ctx.connection(); xadd(&mut con); // no key exists... this call breaks the connection pipe for some reason let reply: RedisResult = con.xinfo_stream("k10"); assert_eq!(reply.is_err(), true); // redo the connection because the above error con = ctx.connection(); // key should exist let reply: StreamInfoStreamReply = con.xinfo_stream("k1").unwrap(); assert_eq!(&reply.first_entry.id, "1000-0"); assert_eq!(&reply.last_entry.id, "1000-1"); assert_eq!(&reply.last_generated_id, "1000-1"); // xgroup create (existing stream) let result: RedisResult = con.xgroup_create("k1", "g1", "$"); assert_eq!(result.is_ok(), true); // xinfo groups (existing stream) let result: RedisResult = con.xinfo_groups("k1"); assert_eq!(result.is_ok(), true); let reply = result.unwrap(); assert_eq!(&reply.groups.len(), &1); assert_eq!(&reply.groups[0].name, &"g1"); } #[test] fn test_assorted_2() { // Tests the following commands.... // xadd // xinfo_stream // xinfo_groups // xinfo_consumer // xgroup_create_mkstream // xread_options // xack // xpending // xpending_count // xpending_consumer_count let ctx = TestContext::new(); let mut con = ctx.connection(); xadd(&mut con); // test xgroup create w/ mkstream @ 0 let result: RedisResult = con.xgroup_create_mkstream("k99", "g99", "0"); assert_eq!(result.is_ok(), true); // Since nothing exists on this stream yet, // it should have the defaults returned by the client let result: RedisResult = con.xinfo_groups("k99"); assert_eq!(result.is_ok(), true); let reply = result.unwrap(); assert_eq!(&reply.groups.len(), &1); assert_eq!(&reply.groups[0].name, &"g99"); assert_eq!(&reply.groups[0].last_delivered_id, &"0-0"); // call xadd on k99 just so we can read from it // using consumer g99 and test xinfo_consumers let _: RedisResult = con.xadd("k99", "1000-0", &[("a", "b"), ("c", "d")]); let _: RedisResult = con.xadd("k99", "1000-1", &[("e", "f"), ("g", "h")]); // test empty PEL let empty_reply: StreamPendingReply = con.xpending("k99", "g99").unwrap(); assert_eq!(empty_reply.count(), 0); if let StreamPendingReply::Empty = empty_reply { // looks good } else { panic!("Expected StreamPendingReply::Empty but got Data"); } // passing options w/ group triggers XREADGROUP // using ID=">" means all undelivered ids // otherwise, ID="0 | ms-num" means all pending already // sent to this client let reply: StreamReadReply = con .xread_options( &["k99"], &[">"], StreamReadOptions::default().group("g99", "c99"), ) .unwrap(); assert_eq!(reply.keys[0].ids.len(), 2); // read xinfo consumers again, should have 2 messages for the c99 consumer let reply: StreamInfoConsumersReply = con.xinfo_consumers("k99", "g99").unwrap(); assert_eq!(reply.consumers[0].pending, 2); // ack one of these messages let result: RedisResult = con.xack("k99", "g99", &["1000-0"]); assert_eq!(result, Ok(1)); // get pending messages already seen by this client // we should only have one now.. let reply: StreamReadReply = con .xread_options( &["k99"], &["0"], StreamReadOptions::default().group("g99", "c99"), ) .unwrap(); assert_eq!(reply.keys.len(), 1); // we should also have one pending here... let reply: StreamInfoConsumersReply = con.xinfo_consumers("k99", "g99").unwrap(); assert_eq!(reply.consumers[0].pending, 1); // add more and read so we can test xpending let _: RedisResult = con.xadd("k99", "1001-0", &[("i", "j"), ("k", "l")]); let _: RedisResult = con.xadd("k99", "1001-1", &[("m", "n"), ("o", "p")]); let _: StreamReadReply = con .xread_options( &["k99"], &[">"], StreamReadOptions::default().group("g99", "c99"), ) .unwrap(); // call xpending here... // this has a different reply from what the count variations return let data_reply: StreamPendingReply = con.xpending("k99", "g99").unwrap(); assert_eq!(data_reply.count(), 3); if let StreamPendingReply::Data(data) = data_reply { assert_stream_pending_data(data) } else { panic!("Expected StreamPendingReply::Data but got Empty"); } // both count variations have the same reply types let reply: StreamPendingCountReply = con.xpending_count("k99", "g99", "-", "+", 10).unwrap(); assert_eq!(reply.ids.len(), 3); let reply: StreamPendingCountReply = con .xpending_consumer_count("k99", "g99", "-", "+", 10, "c99") .unwrap(); assert_eq!(reply.ids.len(), 3); for StreamPendingId { id, consumer, times_delivered, last_delivered_ms: _, } in reply.ids { assert!(!id.is_empty()); assert!(!consumer.is_empty()); assert!(times_delivered > 0); } } fn assert_stream_pending_data(data: StreamPendingData) { assert_eq!(data.start_id, "1000-1"); assert_eq!(data.end_id, "1001-1"); assert_eq!(data.consumers.len(), 1); assert_eq!(data.consumers[0].name, "c99"); } #[test] fn test_xadd_maxlen_map() { let ctx = TestContext::new(); let mut con = ctx.connection(); for i in 0..10 { let mut map: BTreeMap<&str, &str> = BTreeMap::new(); let idx = i.to_string(); map.insert("idx", &idx); let _: RedisResult = con.xadd_maxlen_map("maxlen_map", StreamMaxlen::Equals(3), "*", map); } let result: RedisResult = con.xlen("maxlen_map"); assert_eq!(result, Ok(3)); let reply: StreamRangeReply = con.xrange_all("maxlen_map").unwrap(); assert_eq!(reply.ids[0].get("idx"), Some("7".to_string())); assert_eq!(reply.ids[1].get("idx"), Some("8".to_string())); assert_eq!(reply.ids[2].get("idx"), Some("9".to_string())); } #[test] fn test_xclaim() { // Tests the following commands.... // xclaim // xclaim_options let ctx = TestContext::new(); let mut con = ctx.connection(); // xclaim test basic idea: // 1. we need to test adding messages to a group // 2. then xreadgroup needs to define a consumer and read pending // messages without acking them // 3. then we need to sleep 5ms and call xpending // 4. from here we should be able to claim message // past the idle time and read them from a different consumer // create the group let result: RedisResult = con.xgroup_create_mkstream("k1", "g1", "$"); assert_eq!(result.is_ok(), true); // add some keys xadd_keyrange(&mut con, "k1", 0, 10); // read the pending items for this key & group let reply: StreamReadReply = con .xread_options( &["k1"], &[">"], StreamReadOptions::default().group("g1", "c1"), ) .unwrap(); // verify we have 10 ids assert_eq!(reply.keys[0].ids.len(), 10); // save this StreamId for later let claim = &reply.keys[0].ids[0]; let _claim_1 = &reply.keys[0].ids[1]; let claim_justids = &reply.keys[0] .ids .iter() .map(|msg| &msg.id) .collect::>(); // sleep for 5ms sleep(Duration::from_millis(5)); // grab this id if > 4ms let reply: StreamClaimReply = con .xclaim("k1", "g1", "c2", 4, &[claim.id.clone()]) .unwrap(); assert_eq!(reply.ids.len(), 1); assert_eq!(reply.ids[0].id, claim.id); // grab all pending ids for this key... // we should 9 in c1 and 1 in c2 let reply: StreamPendingReply = con.xpending("k1", "g1").unwrap(); if let StreamPendingReply::Data(data) = reply { assert_eq!(data.consumers[0].name, "c1"); assert_eq!(data.consumers[0].pending, 9); assert_eq!(data.consumers[1].name, "c2"); assert_eq!(data.consumers[1].pending, 1); } // sleep for 5ms sleep(Duration::from_millis(5)); // lets test some of the xclaim_options // call force on the same claim.id let _: StreamClaimReply = con .xclaim_options( "k1", "g1", "c3", 4, &[claim.id.clone()], StreamClaimOptions::default().with_force(), ) .unwrap(); let reply: StreamPendingReply = con.xpending("k1", "g1").unwrap(); // we should have 9 w/ c1 and 1 w/ c3 now if let StreamPendingReply::Data(data) = reply { assert_eq!(data.consumers[1].name, "c3"); assert_eq!(data.consumers[1].pending, 1); } // sleep for 5ms sleep(Duration::from_millis(5)); // claim and only return JUSTID let claimed: Vec = con .xclaim_options( "k1", "g1", "c5", 4, &claim_justids, StreamClaimOptions::default().with_force().with_justid(), ) .unwrap(); // we just claimed the original 10 ids // and only returned the ids assert_eq!(claimed.len(), 10); } #[test] fn test_xdel() { // Tests the following commands.... // xdel let ctx = TestContext::new(); let mut con = ctx.connection(); // add some keys xadd(&mut con); // delete the first stream item for this key let result: RedisResult = con.xdel("k1", &["1000-0"]); // returns the number of items deleted assert_eq!(result, Ok(1)); let result: RedisResult = con.xdel("k2", &["2000-0", "2000-1", "2000-2"]); // should equal 2 since the last id doesn't exist assert_eq!(result, Ok(2)); } #[test] fn test_xtrim() { // Tests the following commands.... // xtrim let ctx = TestContext::new(); let mut con = ctx.connection(); // add some keys xadd_keyrange(&mut con, "k1", 0, 100); // trim key to 50 // returns the number of items remaining in the stream let result: RedisResult = con.xtrim("k1", StreamMaxlen::Equals(50)); assert_eq!(result, Ok(50)); // we should end up with 40 after this call let result: RedisResult = con.xtrim("k1", StreamMaxlen::Equals(10)); assert_eq!(result, Ok(40)); } #[test] fn test_xgroup() { // Tests the following commands.... // xgroup_create_mkstream // xgroup_destroy // xgroup_delconsumer let ctx = TestContext::new(); let mut con = ctx.connection(); // test xgroup create w/ mkstream @ 0 let result: RedisResult = con.xgroup_create_mkstream("k1", "g1", "0"); assert_eq!(result.is_ok(), true); // destroy this new stream group let result: RedisResult = con.xgroup_destroy("k1", "g1"); assert_eq!(result, Ok(1)); // add some keys xadd(&mut con); // create the group again using an existing stream let result: RedisResult = con.xgroup_create("k1", "g1", "0"); assert_eq!(result.is_ok(), true); // read from the group so we can register the consumer let reply: StreamReadReply = con .xread_options( &["k1"], &[">"], StreamReadOptions::default().group("g1", "c1"), ) .unwrap(); assert_eq!(reply.keys[0].ids.len(), 2); let result: RedisResult = con.xgroup_delconsumer("k1", "g1", "c1"); // returns the number of pending message this client had open assert_eq!(result, Ok(2)); let result: RedisResult = con.xgroup_destroy("k1", "g1"); assert_eq!(result, Ok(1)); } #[test] fn test_xrange() { // Tests the following commands.... // xrange (-/+ variations) // xrange_all // xrange_count let ctx = TestContext::new(); let mut con = ctx.connection(); xadd(&mut con); // xrange replies let reply: StreamRangeReply = con.xrange_all("k1").unwrap(); assert_eq!(reply.ids.len(), 2); let reply: StreamRangeReply = con.xrange("k1", "1000-1", "+").unwrap(); assert_eq!(reply.ids.len(), 1); let reply: StreamRangeReply = con.xrange("k1", "-", "1000-0").unwrap(); assert_eq!(reply.ids.len(), 1); let reply: StreamRangeReply = con.xrange_count("k1", "-", "+", 1).unwrap(); assert_eq!(reply.ids.len(), 1); } #[test] fn test_xrevrange() { // Tests the following commands.... // xrevrange (+/- variations) // xrevrange_all // xrevrange_count let ctx = TestContext::new(); let mut con = ctx.connection(); xadd(&mut con); // xrange replies let reply: StreamRangeReply = con.xrevrange_all("k1").unwrap(); assert_eq!(reply.ids.len(), 2); let reply: StreamRangeReply = con.xrevrange("k1", "1000-1", "-").unwrap(); assert_eq!(reply.ids.len(), 2); let reply: StreamRangeReply = con.xrevrange("k1", "+", "1000-1").unwrap(); assert_eq!(reply.ids.len(), 1); let reply: StreamRangeReply = con.xrevrange_count("k1", "+", "-", 1).unwrap(); assert_eq!(reply.ids.len(), 1); }