Asia Pacific University Library catalogue


Reactive internet programming : state chart XML in action / Franck Barbier.

By: Barbier, FranckMaterial type: TextTextSeries: ACM Books ; #10Publication details: [San Rafael, California] : Morgan & Claypool, c2016Edition: First editionDescription: 1 PDF (262 pages) : illustrationsISBN: 9781970001792; 9781970001761; 9781970001778Subject(s): Internet programming | XML (Document markup language) | Statecharts (Computer science)DDC classification: 005.276 LOC classification: QA76.625 | .B37 2016ebOnline resources: Available in ACM Digital Library. Requires Log In to view the full text.
Contents:
1. Introduction -- 1.1 Software engineering in the Internet era -- 1.2 Expected benefits of model-driven software development -- 1.3 Programming with events and states -- 1.4 Model execution or interpretation -- 1.5 Architectural issues of Internet programming --
2. Event and state-based modeling and programming -- 2.1 States are universal and everywhere -- 2.2 States are abstract and discrete -- 2.3 "Event" as dual notion of state -- 2.4 -- Harel's Statecharts -- 2.5 Discovering state chart XML -- 2.6 Statechart execution --
3. Applying State Chart XML -- 3.1 Startup of Barbados crisis management system -- 3.2 Business case: "route negotiation" -- 3.3 Timing constraints -- 3.4 Introduction to the run-to-completion execution mode -- 3.5 Variations on modeling: the power of Statecharts -- 3.6 Evaluation --
4. Programming State Chart XML models -- 4.1 Programming "my device" -- 4.2 Setup of entry and exit actions -- 4.3 Setup of activities -- 4.4 Sending events internally -- 4.5 Action parameters -- 4.6 State machine kick-off -- 4.7 State machine shutdown -- 4.8 State machine tracing -- 4.9 Transition programming -- 4.10 Guard programming -- 4.11 Event processing -- 4.12 Communication programming --
5. Execution semantics -- 5.1 Example of execution semantics potential defects -- 5.2 Run-to-completion cycles -- 5.3 Action and activity execution sequencing -- 5.4 Execution sequencing and orthogonality -- 5.5 Execution sequencing and nesting -- 5.6 Event consumption principle -- 5.7 Deferred events -- 5.8 Transition conflicts --
6. Advanced programming with PauWare engine -- 6.1 Completion transitions -- 6.2 Timer services -- 6.3 State and event naming -- 6.4 Single nesting -- 6.5 The notion of "internal transition" in State Chart XML -- 6.6 Allowed events at large -- 6.7 Unicast vs. multicast calls/communications -- 6.8 Cached transitions vs. contextual transitions -- 6.9 Data consistency checking through state invariants -- 6.10 History facilities -- 6.11 Concurrency --
7. Programming the "Internet of things" -- 7.1 Characterization of "Internet of things" applications -- 7.2 Application requirements (home automation system) -- 7.3 Analysis -- 7.4 Design -- 7.5 Implementation issues --
8. Programming web enterprise applications -- 8.1 Characterization of web enterprise applications -- 8.2 Application requirements (railcar control system) -- 8.3 Analysis -- 8.4 Design -- 8.5 Implementation issues --
9. Software component management -- 9.1 Dynamical (Re)configuration -- 9.2 Extended management framework -- 9.3 Pushing state machine data outside --
Appendix A. Internal structure of PauWare engine -- A.1. Organization of a state machine's states in memory -- A.2. Organization of a state machine's transitions in memory -- Appendix B. Acronyms -- Appendix C. Downloadable software resources -- References -- Author's biography.
    Average rating: 0.0 (0 votes)
Item type Current library Collection Call number Copy number Status Date due Barcode
General Circulation General Circulation APU Library
Online Database 		E-Book QA76.625 .B37 2016eb (Browse shelf (Opens below)) 1 Available

Includes bibliographical references (pages 223-224).

1. Introduction -- 1.1 Software engineering in the Internet era -- 1.2 Expected benefits of model-driven software development -- 1.3 Programming with events and states -- 1.4 Model execution or interpretation -- 1.5 Architectural issues of Internet programming --

2. Event and state-based modeling and programming -- 2.1 States are universal and everywhere -- 2.2 States are abstract and discrete -- 2.3 "Event" as dual notion of state -- 2.4 -- Harel's Statecharts -- 2.5 Discovering state chart XML -- 2.6 Statechart execution --

3. Applying State Chart XML -- 3.1 Startup of Barbados crisis management system -- 3.2 Business case: "route negotiation" -- 3.3 Timing constraints -- 3.4 Introduction to the run-to-completion execution mode -- 3.5 Variations on modeling: the power of Statecharts -- 3.6 Evaluation --

4. Programming State Chart XML models -- 4.1 Programming "my device" -- 4.2 Setup of entry and exit actions -- 4.3 Setup of activities -- 4.4 Sending events internally -- 4.5 Action parameters -- 4.6 State machine kick-off -- 4.7 State machine shutdown -- 4.8 State machine tracing -- 4.9 Transition programming -- 4.10 Guard programming -- 4.11 Event processing -- 4.12 Communication programming --

5. Execution semantics -- 5.1 Example of execution semantics potential defects -- 5.2 Run-to-completion cycles -- 5.3 Action and activity execution sequencing -- 5.4 Execution sequencing and orthogonality -- 5.5 Execution sequencing and nesting -- 5.6 Event consumption principle -- 5.7 Deferred events -- 5.8 Transition conflicts --

6. Advanced programming with PauWare engine -- 6.1 Completion transitions -- 6.2 Timer services -- 6.3 State and event naming -- 6.4 Single nesting -- 6.5 The notion of "internal transition" in State Chart XML -- 6.6 Allowed events at large -- 6.7 Unicast vs. multicast calls/communications -- 6.8 Cached transitions vs. contextual transitions -- 6.9 Data consistency checking through state invariants -- 6.10 History facilities -- 6.11 Concurrency --

7. Programming the "Internet of things" -- 7.1 Characterization of "Internet of things" applications -- 7.2 Application requirements (home automation system) -- 7.3 Analysis -- 7.4 Design -- 7.5 Implementation issues --

8. Programming web enterprise applications -- 8.1 Characterization of web enterprise applications -- 8.2 Application requirements (railcar control system) -- 8.3 Analysis -- 8.4 Design -- 8.5 Implementation issues --

9. Software component management -- 9.1 Dynamical (Re)configuration -- 9.2 Extended management framework -- 9.3 Pushing state machine data outside --

Appendix A. Internal structure of PauWare engine -- A.1. Organization of a state machine's states in memory -- A.2. Organization of a state machine's transitions in memory -- Appendix B. Acronyms -- Appendix C. Downloadable software resources -- References -- Author's biography.

There are no comments on this title.

to post a comment.