1. SonicMQ for LDIWG Kris Kostro, Francesco Calderini AB/CO

2. Layout SonicMQ in CMW JMS Characteristics of SonicMQ Connectivity Does it fulfill the LDIWG requirements? How could LDIWG be implemented with SonicMQ

3. SonicMQ in CMW 1999 requirement capture for CMW, product studies, recognized need for MOM May 2000 Preference for JMS, product evaluations Sept. 2000 presentation by by Mitchell Horovitz, the Technical Product Manager of SonicMQ February 2001 SonicMQ has been selected as the messaging product for the CMW project. Purchased 4 licences. August 2001 First real use for timing events delivery

4. Java Message Service Industry-standard messaging specification Developed by Sun and other leading vendors Required component in J2EE 1.3 Common set of APIs and semantics Publish and subscribe Point-to-point Message delivery Quality of Service (QoS) Guaranteed Once-and-only-once At-most-once Message content (properties), message types, filtering, etc. well defined Deployment architecture not addressed What is JMS?

5. SonicMQ JMS implementation Hierarchical namespace (topics) XML support on top of text message (for DOM2, JAXP, SAX) Multiple levels of Quality of Service Connectivity beyond JMS

6. SonicMQ JMS implementation (in Java) Market leader for JMS Hub-and-spoke architecture Scalable (clusters, load balancing, …) High availability (parallel servers, queues, topics, persistent topics, etc) Security (SSL, certificates, HTTP tunneling, firewalls etc.)

7. Integrating SonicMQ with C/C++ Clients

8. Connectivity HTTP C, C++ COM FTP SNMP Bridges to proprietary systems (MMQ) Bridges to other JMS systems

9. How can SonicMQ fulfill the LDIWG requirements?

10. Enterprise Messaging …and Sonic delivers! Security Requires… ConnectivityAvailabilityReliabilityScalability

11. LDIWG requires Availability (2, 3) SonicMQ is typically used in areas which much higher availability requirements Intrinsically high availability architecture. Brokers can be set up as redundant, can be clustered or partitioned into independent domains

12. Connection Management Distribution of client connections across cluster Connection-time load balancing One or more brokers from list used as initial connection points Clients redirected to other brokers via weighted round- robin algorithm High availability of server connections Connect time failover Clients connect to 1st available broker in list Subsequent failover Reconnect on notification of connection loss Availability Removing Bottlenecks and Points of Failure

13. LDIWG requires Reliability (4, 5) Publisher down -> watchdog mechanism (outside of SonicMQ) Control frequency -> No, should be assured by the domain, authentication possible Guaranteed delivery possible

14. Guaranteed Delivery Messages delivered even in the most challenging situations Persistent messages are stored and flushed to disk before being acknowledged Patent-pending storage mechanism offers reliability and high performance Dead Message Queue Includes large message support and client- side persistence Supports local or distributed (2-phase) transactions Reliable groups of actions Reliability Handles Failure at Any Point in Lifecycle

15. LDIWG requires (cont.) Synchronisation (6) Timestamp is part of JMS (ms), in LHC all data will be time-stamped at the source

16. LDIWG requires (cont.) Latency (7) Latency depends on configuration and required throughput Performance (8) Guarantee of delivery (different levels) Throughput depends on configuration and QoS Extensive performance figures available

17. Built to Scale Multi-threaded Broker Architected for high capacity* Connections > 2000 Destinations > 80,000 Messages > 8,000/s (persistent) Latency < 10ms Actual figures depend on environment Single Cluster Required when single broker capacity is exceeded Multiple brokers in cluster act as single virtual broker Communities of Clusters Linked via Dynamic Routing Architecture™ (DRA) Scalability *Tested on 4-way 550MHz Windows NT Server (1K message size)

18. Expanding the Cluster No limits on cluster size Current deployments up to 64 brokers Clients are load- balanced across the cluster Messages routed through inter-broker connections where necessary Head Office Scalability Achieve Linear Scalability Broker Cluster Business Application Broker Business Application Broker

19. LDIWG requires (cont.) Adaptability (9) Fully dynamic configuration Protocol features (10) JMS is an industry standard (11) Supports several platforms (see list) (12) On change semantics must be assured by the producer

20. LDIWG requires (cont.) Protocol features (cont.) (13) Grouping -> performance issue (14) Last published value ->posibility of persistence with timeout. Request for last value can be implemented outside of SonicMQ (15) JNDI can be used as naming and directory service (16) Hierarchical namespace with wildcards

21. LDIWG constrains Constrains (17) Can do much better than 10 messages/s but it is really scalability issue (18) Can do much better for latency, again scalability issue (19) No known blocking problems (20) No flow control inside SonicMQ (domain responsibility) (21) User-based identification and topic-level authorization via ACL (23) Administration utilities available

22. Comprehensive Security Encryption Built-in payload encryption Secure messaging without performance cost of SSL Channel encryption SSL with up to 168-bit keys Authentication Built-in username/password authentication Supports digital certificates for user authentication Authorization Specify rights of authenticated users Exploit destination hierarchies and groups of users to simplify administration Security Flexible Deployment Options

23. SonicMQ Explorer

24. How could LDIWG be implemented with SonicMQ

25. Hierarchical namespace to deal with “private” domain naming XML as common, self-describing data format Bridge for each domain (SonicMQ Bridges technology?) Common administration

26. Example topics hierarchy Common root CERN Partitioned into administration domains (PS, LHC, ST, Alarms, CMS..) Every domain defines it’s own hierarchy All accelerator domains follow the class/device hierarchy CERN SPS CMS Magnet BPM Class N Device instance N Magnet1 Magnet2 ST PS Root Domain Class Device Property Status Current Can subscribe to status of all magnets: CERN.SPS.Magnet.*.Status

27. How could LDIWG be implemented with SonicMQ Hierarchical namespace to deal with “private” domain naming XML as common, self-describing data format Bridge for each domain (SonicMQ Bridges technology?) Common administration

28. XML as common, self- describing data format Support within SonicMQ Used for LHC logging following String 2 experience Will probably be used in other domains (post-mortem, alarms) Self-describing data, no need to negotiate between domains, Web support

29. How could LDIWG be implemented with SonicMQ Hierarchical namespace to deal with “private” domain naming XML as common, self-describing data format Bridge for each domain (SonicMQ Bridges technology?) Common administration

30. Bridge for each domain CMW – has been done in the past - easy PVSS – has been done (in one direction) DIM – easy to do as there are similar concepts (namespace) and there is JAVA API Smartsockets

31. SonicMQ Server SonicMQ Client CMW Agent CMW Server CMW Server SonicMQ Domain Gateway Topic Listener Controls DB

32. SonicMQ Integration overview Clients Mail Devices (Hardware) Legacy Systems Com / ActiveX FTP JMS WEB Logics Tibco / IBM Services 4GL C/C++ Java SonicMQServer SonicMQ Cluster SonicMQServer SonicMQServer topicqueue XML Mapping Files

33. SonicMQ Bridges Bi-directional message forwarding Between messaging systems Across other Internet services Transparent to client applications Mappings held in XML configuration file Administration through SonicMQ Common exception handling and logging Connectivity to Internet services and messaging systems

34. SonicMQ Bridges SonicMQ Bridge SonicMQ  MQSeries Mapping SonicMQ  MQSeries Mapping  MQSeries SonicMQ Mapping  MQSeries SonicMQ Mapping SonicMQ Server SonicMQ Client MQSeries Broker Mqseries Client MQSeries ClientTopicQueue XML Mapping Files

35. SonicMQ Bridges SonicMQ Bridge  CMW SonicMQ Mapping  CMW SonicMQ Mapping SonicMQ Server SonicMQ Client CMW Agent CMW Server CMW ServerTopicListener XML Mapping Files

36. Reasons to use SonicMQ Solid industrial product by market leader Implements standard, hence certain product independence Scalable: Start with one broker and expand later if needed Inexpensive Good connectivity (some non-standard) Fulfills LDIWG requirements and more Easy to implement LDIWG