#USC CS MOBILE DEVELOPMENT PROFESSORS SOFTWARE#

The most common software development activity-programming-is nothing more than modeling a system in an executable, highвЂђlevel programming language. It spans all development activities, from an early problem definition all the way through the systemвЂ™s deployment and operation. Modeling is a critical activity in the development of software systems. CSCI 499 вЂ“ Modeling Software-Intensive Systems (instructor: Nenad MedvidoviД‡) A class project will give students hands-on experience with building software development infrastructure and/or applications in this important domain. While not the primary focus of the class, enabling advances in other areas (e.g., embedded, real-time operating systems, wireless networking, the Internet) will be studied from a software application development perspective.

The class will assess the applicability of mainstream software engineering methods and techniques (e.g., object-orientation, component-based development, software architecture) to this domain. This class will examine the key properties of software systems in the embedded, resource constrained, mobile, and highly distributed world. Software systems running on networks of mobile, embedded devices must necessarily exhibit properties that are not always required of more traditional systems: near-optimal performance, robustness, distribution, dynamism, mobility. The methods, techniques, and tools for developing software systems that were successfully applied in the former scenario are not as readily applicable in the latter. Over the past decade, the world of computing has moved from large, static, desk-top machines to small, mobile, palm-top, and embedded devices. Prior Courses CSCI 589 вЂ“ Software Engineering for Embedded Systems (instructor: Nenad MedvidoviД‡) A larger team project involving the most advanced topics covered as well as a challenging real-world problem will cap off the class. Multiple homework assignments will complement the classroom instruction and self-study by enabling students to build models and specifications involved in the bookвЂ™s exercises and case studies, as well as real-world systems, helping students discover the latest RE technology solutions. It presents a multi-view modeling framework that integrates complementary techniques for modeling the system-as-is and the system-to-be. The course then focuses on system modeling in the specific context of engineering requirements.

The course introduces fundamental concepts and principles including the aim and scope of requirements engineering, the products and processes involved, requirements qualities to aim at and flaws to avoid, and the critical role of requirements engineering in system and software engineering. The course will expose students to, both, the current state of the art in requirements engineering and a systematic method for engineering high-quality requirements. CSCI 568 вЂ“ Requirements Engineering (instructor: George Edwards) Students are expected to attend class regularly, and participate (as directed) in all class discussions. In addition to foundations, and practical experience with software architectures, the class will also introduce the student to the state-of-the-art in software architecture research, future trends and state-of-the-practice. A class project will require the student to leverage the architectural techniques learned during the course (e.g., architectural recovery, architectural styles, domain specific software architectures) to design and implement a real-world software system. The class is centered around reading assignments, and homework that will test understanding of the course material. This course will afford the student a complete treatment of software architecture, its foundation, principles, and elements, including those described above. Software architectures that are found particularly useful for families of systems are often codified into architectural styles. These building blocks are the components (units of computation in a system), the connectors (models of the interactions between software components), and the configurations (arrangements of software components and connectors, and the rules that guide their composition). Software architecture deals with the high level building blocks that represent an underlying software system. At the heart of every well-engineered software system is its software architecture. Software architecture has become increasingly important in the last 15 years in the software engineering community. Current Courses CSCI 578 вЂ“ Software Architectures (instructors: Nenad MedvidoviД‡ and Chris Mattmann)

Usc cs mobile development professors