Over 90% of all microprocessors are now used for real-time and embedded applications. Embedded devices are deployed on a broad diversity of distinct processor architectures and operating systems. The application software for many embedded devices is custom tailored if not written entirely from scratch. The size of typical embedded system software applications is growing exponentially from year to year, with many of today's embedded systems comprised of multiple millions of lines of code. For all of these reasons, the software portability, reuse, and modular composability benefits offered by Java are especially valuable to developers of embedded systems.

Both embedded and general purpose software frequently need to comply with real-time constraints. Higher-level programming languages and middleware are needed to robustly and productively design, implement, compose, integrate, validate, and enforce memory and real-time constraints along with conventional functional requirements for reusable software components. The Java programming language has become an attractive choice because of its safety, productivity, its relatively low maintenance costs, and the availability of well trained developers.

::Goal::

Interest in real-time Java by both the academic research community and commercial industry has been motivated by the need to manage the complexity and costs associated with continually expanding embedded real-time software systems. The goal of the workshop is to gather researchers working on real-time and embedded Java to identify the challenging problems that still need to be solved in order to assure the success of real-time Java as a technology and to report results and experience gained by researchers.

The Java ecosystem has outgrown the combination of Java as programming language and the JVM. For example, Android uses Java as source language and the Dalvik virtual machine for execution. Languages such as Scala are compiled to Java bytecode and executed on the JVM. JTRES welcomes submissions that apply such approaches to embedded and/or real-time systems.

::Submission Requirements::

Participants are expected to submit a paper of at most 10 pages (ACM Conference Format, i.e., two-columns, 10 point font). Accepted papers will be published in the ACM International Conference Proceedings Series via the ACM Digital Library and have to be presented by one author at the JTRES.

LaTeX and Word templates can be found at: http://www.acm.org/sigs/pubs/proceed/template.html

The ISBN number for JTRES 2016 is TBD.

Papers describing open source projects shall include a description how to obtain the source and how to run the experiments in the appendix. The source version for the published paper will be hosted at the JTRES web site.
Papers should be submitted through EasyChair. Please use the submission link:
https://easychair.org/conferences/?conf=jtres2016

Selected papers will be invited for submission to a special issue of the TBD.

Topics of interest to this workshop include, but are not limited to:

    New real-time programming paradigms and language features
    Industrial experience and practitioner reports
    Open source solutions for real-time Java
    Real-time design patterns and programming idioms
    High-integrity and safety critical system support
    Java-based real-time operating systems and processors
    Extensions to the RTSJ and SCJ
    Real-time and embedded virtual machines and execution environments
    Memory management and real-time garbage collection
    Multiprocessor and distributed real-time Java
    Real-time solutions for Android
    Languages other than Java on real-time or embedded JVMs
    Benchmarks and Open Source applications using real-time Java