Real-Time Systems, 1/e, Computer Science,Engineering and Computer Science,Higher Education,Jane W. Liu, Pearson Education, India.

Array ( [0] =>stdClass Object ( [lang_id] =>2 [lang_code] =>de-DE [title] =>Deutsch [title_native] =>Deutsch [sef] =>de [image] =>de [description] =>[metakey] =>[metadesc] =>[sitename] =>[published] =>1 [access] =>1 [ordering] =>0 [active] =>[display] =>1 [link] =>/de/ ) [1] =>stdClass Object ( [lang_id] =>1 [lang_code] =>en-GB [title] =>English (UK) [title_native] =>English [sef] =>en [image] =>en [description] =>[metakey] =>[metadesc] =>[sitename] =>[published] =>1 [access] =>1 [ordering] =>1 [active] =>1 [display] =>1 [link] =>/ ) ). Real-Time Systems GmbH Currently seeking: Experts for Real-Time Hypervisor and Embedded Virtualization Technology • IEEE 1588 Precision Time Protocol (PTP) Master Implementations • We develop and market standard software products that target advanced embedded applications. • Our products provide real-time system developers with standard, up-to-date solutions for substantial portions of embedded projects.

• Using modern programming techniques, our highly-experienced team creates robust, dependable products. -and- Customers may also engage us for a wide range of consulting services centered around real-time embedded and PC-based systems. We participate in or take full responsibility for any aspect of development, from system definition to hands-on implementation, documentation and testing. Real-Time Systems GmbH - the partner you've been looking for! Array ( [0] =>stdClass Object ( [lang_id] =>2 [lang_code] =>de-DE [title] =>Deutsch [title_native] =>Deutsch [sef] =>de [image] =>de [description] =>[metakey] =>[metadesc] =>[sitename] =>[published] =>1 [access] =>1 [ordering] =>0 [active] =>[display] =>1 [link] =>/de/ ) [1] =>stdClass Object ( [lang_id] =>1 [lang_code] =>en-GB [title] =>English (UK) [title_native] =>English [sef] =>en [image] =>en [description] =>[metakey] =>[metadesc] =>[sitename] =>[published] =>1 [access] =>1 [ordering] =>1 [active] =>1 [display] =>1 [link] =>/ ) ).

Lecture 1 - Real-time systems: characteristics and design methods Tue study week 1, 13.15 - 15.00 in HC3 In this lecture, we describe the general construction methods used for the design of real-time systems. A three-stage design flow is introduced that encompasses specification, implementation, and verification.

For the specification stage, we present application constraints particular to real-time systems, and discuss their origin and implications. For the implementation stage, we discuss critical design choices to be made. For the verification stage, we discuss the pros and cons of ad hoc testing and formal analysis (schedulability analysis). Slides [,, ] Reading • John Stankovic, Misconceptions About Real-Time Computing - A Serious Problem for Next-Generation Systems [] • Krithi Ramamritham, Where do Time Constraints Come From and Where do They Go?

Lecture 2 - Real-time systems: programming paradigms Thu study week 1, 13.15 - 15.00 in HC3 In this lecture, we identify the desired properties of a real-time programming language and show to what extent these properties exist in contemporary imperative languages. Hampton Bay Ac374 Wb Manual High School there. We then discuss the pros and cons of a concurrent/parallel programming paradigm and show how contemporary imperative languages offer support for this paradigm. Finally, using an example control application, we show that correct application behavior can only be achieved by means of concurrent programming and synchronization. Slides [,, ] Reading • Excerpt from A. Wellings, Real-Time Systems and Programming Languages []. Biomecanica Basica Del Sistema Muscoesqueletico Nordin Pdf more.

Lecture 4 - Concurrent programming: problems and solutions Tue study week 2, 13.15 - 15.00 in HC3 In this lecture, we introduce the general resource management problem, and highlight the deadlock, starvation and mutual exclusion issues. We then take a closer look at the mutual exclusion property and show how different imperative languages and run-time systems offer support for mutual exclusion. Techniques that will be described are protected objects, monitors, semaphores and mutex methods. Slides [,, ] Reading • Excerpt from A. Wellings, Real-Time Systems and Programming Languages []. Lecture 5 - Concurrent programming: problems and solutions (cont'd) Thu study week 2, 13.15 - 15.00 in HC3 In this lecture, we first demonstrate why mutual exclusion matters using an example involving a circular buffer.

We then describe how mutual exclusion is achieved with support from the processor hardware. Finally, we highlight the need for call-back functionality in real-time programming, and give examples in the context of TinyTimber. Slides [,, ] Reading • Johan Nordlander, Programming with the TinyTimber kernel []. Lecture 6 - Concurrent programming: guaranteeing timeliness Tue study week 3, 13.15 - 15.00 in HC3 In this lecture, we show the mechanisms that are used in Ada95 and TinyTimber to provide clocks, time, delays and task priorities. We also discuss the priority/deadline inversion problem and discuss different methods for avoiding/reducing the problem.

Slides [,, ] Reading • Excerpt from A. Wellings, Real-Time Systems and Programming Languages [] • Johan Nordlander, Programming with the TinyTimber kernel []. Lecture 11 - Scheduling: static and dynamic priorities, processor utilization analysis Tue study week 6, 13.15 - 15.00 in HC3 In this lecture, we describe the run-time mechanisms and properties of pseudo-parallel execution using static/dynamic task priorities. In that context, we introduce the rate-monotonic (RM) and earliest-deadline-first (EDF) scheduling policies. In addition, we describe how to check schedulability of a set of RM/EDF-scheduled tasks using processor utilization analysis. Slides [,, ] Reading • Section 11.3, 11.4 and 11.11.1 in A.

Wellings, Real-Time Systems and Programming Languages [] • Section 3.2 and 4.2 in Ken Tindell, Real Time Systems and Fixed Priority Scheduling []. Lecture 12 - Scheduling: response time analysis Thu study week 6, 13.15 - 15.00 in HC3 In this lecture, we relax some assumptions of the RM policy and introduce the more general deadline-monotonic (DM) scheduling policy. In addition, we describe how to check schedulability of a set of DM-scheduled tasks using response-time analysis. Slides [,, ] Reading • Section 11.5 and 11.7 - 11.9 in A.

Wellings, Real-Time Systems and Programming Languages [] • Section 4.3 - 4.7 in Ken Tindell, Real Time Systems and Fixed Priority Scheduling [] • Section 3 in R. Davis et al., Controller Area Network (CAN) Schedulability Analysis: Refuted, Revisited and Revised [ ]. Lecture 14 - Scheduling: multiprocessor systems Thu study week 7, 13.15 - 15.00 in HC3 In this lecture, we introduce the two main approaches to multiprocessor scheduling: partitioned scheduling and global scheduing. We also describe the fundamental problems in finding good priority assignment policies and schedulability tests for multiprocessor real-time systems. Finally, we present the RM-US scheduling policy, which represents a state-of-the-art technique for global real-time multiprocessor scheduling. Slides [,, ] Reading • B.

Andersson, S. Baruah and J. Jonsson, Static-Priority Scheduling on Multiprocessors [ ].