DEVOPS PRODUCT LINE ENGINEERING (DPLE): WHERE DEVOPS MEETS SOFTWARE PRODUCT LINES

2016 ◽  
Vol 72 (11) ◽  
Author(s):  
SRIDEVI GUTTA ◽  
SRINIVAS PRASAD ◽  
JAYASRI ANGARA
2012 ◽  
Vol 22 ◽  
pp. 134-140
Author(s):  
María Karen Cortés-Verdín ◽  
María Lucía López-Araujo ◽  
Jorge Octavio Ocharán-Hernández

Software Product Lines (SPL) take economic advantage of commonality and variability among a set of software systems that exist within a specific domain. Therefore, Software Product Line Engineering defines a series of processes for the development of a SPL that consider commonality and variability during the software life cycle. Variability modeling is therefore an essential activity in a Software Product Line Engineering approach. There are several techniques for variability modeling nowadays. COVAMOF stands out among them since it allows the modeling of variation points, variants and dependencies as first class elements. COVAMOF, therefore, provides an uniform manner for representing such concepts in different levels of abstraction within a SPL. In order to take advantage of COVAMOF benefits, it is necessary to have a computer aided tool, otherwise variability modeling and management canbe a hard tasks for the software engineer. This paper presents the development of a Eclipse plug-in for COVAMOF.


2021 ◽  
Vol 26 (2) ◽  
Author(s):  
Robert Lindohf ◽  
Jacob Krüger ◽  
Erik Herzog ◽  
Thorsten Berger

AbstractSoftware product-line engineering is arguably one of the most successful methods for establishing large portfolios of software variants in an application domain. However, despite the benefits, establishing a product line requires substantial upfront investments into a software platform with a proper product-line architecture, into new software-engineering processes (domain engineering and application engineering), into business strategies with commercially successful product-line visions and financial planning, as well as into re-organization of development teams. Moreover, establishing a full-fledged product line is not always possible or desired, and thus organizations often adopt product-line engineering only to an extent that deemed necessary or was possible. However, understanding the current state of adoption, namely, the maturity or performance of product-line engineering in an organization, is challenging, while being crucial to steer investments. To this end, several measurement methods have been proposed in the literature, with the most prominent one being the Family Evaluation Framework (FEF), introduced almost two decades ago. Unfortunately, applying it is not straightforward, and the benefits of using it have not been assessed so far. We present an experience report of applying the FEF to nine medium- to large-scale product lines in the avionics domain. We discuss how we tailored and executed the FEF, together with the relevant adaptations and extensions we needed to perform. Specifically, we elicited the data for the FEF assessment with 27 interviews over a period of 11 months. We discuss experiences and assess the benefits of using the FEF, aiming at helping other organizations assessing their practices for engineering their portfolios of software variants.


Author(s):  
Mahdi Bashari ◽  
Ebrahim Bagheri ◽  
Weichang Du

Runtime adaptive systems are able to dynamically transform their internal structure, and hence their behavior, in response to internal or external changes. Such transformations provide the basis for new functionalities or improvements of the non-functional properties that match operational requirements and standards. Software Product Line Engineering (SPLE) has introduced several models and mechanisms for variability modeling and management. Dynamic software product lines (DSPL) engineering exploits the knowledge acquired in SPLE to develop systems that can be context-aware, post-deployment reconfigurable, or runtime adaptive. This paper focuses on DSPL engineering approaches for developing runtime adaptive systems and proposes a framework for classifying and comparing these approaches from two distinct perspectives: adaptation properties and adaptation realization. These two perspectives are linked together by a series of guidelines that help to select a suitable adaptation realization approach based on desired adaptation types.


2015 ◽  
Vol 6 (3) ◽  
pp. 9-32 ◽  
Author(s):  
Anissa Benlarabi ◽  
Amal Khtira ◽  
Bouchra El Asri

In this rapidly changing world, business strategies continuously evolve to meet customers' wishes. Hence, the ability to cope with the frequent business changes is becoming important criteria of a leading development paradigm. Software product line engineering is a development paradigm based on reuse that builds a common platform from which a set of applications can be derived. Despite its advantage of enhancing time to market and costs, it is exposed to the risk of falling into the aging phenomenon because of the complexity of its evolution. In this paper the authors present a co-evolution based approach for protecting the software product lines from the aging phenomenon. The approach uses cladistics and trees reconciliation that are mainly used in biology to analyze the co-evolution between organisms. The authors' major goal is to find out changes of products that were not propagated to the common platform at the aim of reconsidering them in the platform and thus protecting it from being obsolete.


2021 ◽  
Vol 26 (3) ◽  
Author(s):  
Mikaela Cashman ◽  
Justin Firestone ◽  
Myra B. Cohen ◽  
Thammasak Thianniwet ◽  
Wei Niu

AbstractSoftware product line engineering is a best practice for managing reuse in families of software systems that is increasingly being applied to novel and emerging domains. In this work we investigate the use of software product line engineering in one of these new domains, synthetic biology. In synthetic biology living organisms are programmed to perform new functions or improve existing functions. These programs are designed and constructed using small building blocks made out of DNA. We conjecture that there are families of products that consist of common and variable DNA parts, and we can leverage product line engineering to help synthetic biologists build, evolve, and reuse DNA parts. In this paper we perform an investigation of domain engineering that leverages an open-source repository of more than 45,000 reusable DNA parts. We show the feasibility of these new types of product line models by identifying features and related artifacts in up to 93.5% of products, and that there is indeed both commonality and variability. We then construct feature models for four commonly engineered functions leading to product lines ranging from 10 to 7.5 × 1020 products. In a case study we demonstrate how we can use the feature models to help guide new experimentation in aspects of application engineering. Finally, in an empirical study we demonstrate the effectiveness and efficiency of automated reverse engineering on both complete and incomplete sets of products. In the process of these studies, we highlight key challenges and uncovered limitations of existing SPL techniques and tools which provide a roadmap for making SPL engineering applicable to new and emerging domains.


2017 ◽  
Vol 20 (3) ◽  
pp. 1951-1976 ◽  
Author(s):  
Alessandro Ferreira Leite ◽  
Vander Alves ◽  
Genaína Nunes Rodrigues ◽  
Claude Tadonki ◽  
Christine Eisenbeis ◽  
...  

Sign in / Sign up

Export Citation Format

Share Document