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We describe a programming model called PTIDES (Programming Temporally Integrated Distributed Embedded Systems), that extends the discrete-event model of computation with a carefully chosen relationship between real time and model time. PTIDES provides a framework for exploring a family of execution strategies for distributed embedded systems. Our objective in this paper is to present an execution strategy that 1) allows independent events to be processed out of time stamp order, 2) uses clock synchronization as a replacement for null message communication across distributed platforms, 3) defines a notion of when events are safe to process and 4) presents an implementation of a PTIDES model. This work puts forward an execution strategy that is aggressive in concurrent execution of events.

We describe a programming model called PTIDES (Programming Temporally Integrated Distributed Embedded Systems), that extends the discrete-event model of computation with a carefully chosen relationship between real time and model time. PTIDES provides a framework for exploring a family of execution strategies for distributed embedded systems. Our objective in this paper is to present an execution strategy that 1) allows independent events to be processed out of time stamp order, 2) uses clock synchronization as a replacement for null message communication across distributed platforms, 3) defines a notion of when events are safe to process and 4) presents an implementation of a PTIDES model. This work puts forward an execution strategy that is aggressive in concurrent execution of events.

In the paper we consider the linear underdetermined system of a special type. Systems of this type appear in non-homogeneous network flow programming problems in the form of systems of constraints and can be characterized as systems with a large sparse submatrix representing the embedded network structure. We develop a direct method for finding solutions of the system. The algorithm is based on the theoretic-graph specificities for the structure of the support and properties of the basis of a solution space of a homogeneous system. One of the key steps is decomposition of the system. A simple example is regarded at the end of the paper.

In the paper we consider the linear underdetermined system of a special type. Systems of this type appear in non-homogeneous network flow programming problems in the form of systems of constraints and can be characterized as systems with a large sparse submatrix representing the embedded network structure. We develop a direct method for finding solutions of the system. The algorithm is based on the theoretic-graph specificities for the structure of the support and properties of the basis of a solution space of a homogeneous system. One of the key steps is decomposition of the system. A simple example is regarded at the end of the paper.

In the paper we consider the linear underdetermined system of a special type. Systems of this type appear in non-homogeneous network flow programming problems in the form of systems of constraints and can be characterized as systems with a large sparse submatrix representing the embedded network structure. We develop a direct method for finding solutions of the system. The algorithm is based on the theoretic-graph specificities for the structure of the support and properties of the basis of a solution space of a homogeneous system. One of the key steps is decomposition of the system. A simple example is regarded at the end of the paper.

In the paper we consider the linear underdetermined system of a special type. Systems of this type appear in non-homogeneous network flow programming problems in the form of systems of constraints and can be characterized as systems with a large sparse submatrix representing the embedded network structure. We develop a direct method for finding solutions of the system. The algorithm is based on the theoretic-graph specificities for the structure of the support and properties of the basis of a solution space of a homogeneous system. One of the key steps is decomposition of the system. A simple example is regarded at the end of the paper.

In the paper we consider the linear underdetermined system of a special type. Systems of this type appear in non-homogeneous network flow programming problems in the form of systems of constraints and can be characterized as systems with a large sparse submatrix representing the embedded network structure. We develop a direct method for finding solutions of the system. The algorithm is based on the theoretic-graph specificities for the structure of the support and properties of the basis of a solution space of a homogeneous system. One of the key steps is decomposition of the system. A simple example is regarded at the end of the paper.

Embedded Systems Programming 2013-2014 dumped with WikiTeam tools.

Embedded Systems Programming 2013-2014 dumped with WikiTeam tools.

Embedded Systems Programming 2013-2014 dumped with WikiTeam tools.

Embedded Systems Programming 2013-2014 dumped with WikiTeam tools.

This paper describes CES, a prototype of a new programming language for robots and other embedded systems, equipped with sensors and actuators. CES contains two new ideas, currently not found in other programming languages: support of computing with uncertain information, and support of adaptation and teaching as a means of programming. These innovations facilitate the rapid development of software for embedded systems, as demonstrated by two mobile robot applications.

The goal of our research was to develop technologies and techniques in support of real-time systems for the defense community. Our research focused on Real-Time Java implementation and analysis techniques. Real-Time Java is important for the defense community because it holds out the promise of enabling developers to apply COTS Java technology to specialized military embedded systems. It also promises to allow the defense community to utilize a large Java-literate workforce for building defense systems. Our research has delivered several techniques that may make Real-Time Java a better platform for developing embedded systems. These techniques include ways to implement scoped memories (a key Real-Time Java construct) without the possibility of introducing unexpected and potentially catastrophic delays in the execution of real-time threads, analyses that ensure the correct use of Real-Time Java scoped memories, analyses that compute how much memory is required to execute a given Real-Time Java program (potentially helping developers calculate how much memory must be including in a given system to ensure that the system will execute without running out of memory), and optimizations that reduce the amount of memory required to execute a Real-Time Java program.

The goal of our research was to develop technologies and techniques in support of real-time systems for the defense community. Our research focused on Real-Time Java implementation and analysis techniques. Real-Time Java is important for the defense community because it holds out the promise of enabling developers to apply COTS Java technology to specialized military embedded systems. It also promises to allow the defense community to utilize a large Java-literate workforce for building defense systems. Our research has delivered several techniques that may make Real-Time Java a better platform for developing embedded systems. These techniques include ways to implement scoped memories (a key Real-Time Java construct) without the possibility of introducing unexpected and potentially catastrophic delays in the execution of real-time threads, analyses that ensure the correct use of Real-Time Java scoped memories, analyses that compute how much memory is required to execute a given Real-Time Java program (potentially helping developers calculate how much memory must be including in a given system to ensure that the system will execute without running out of memory), and optimizations that reduce the amount of memory required to execute a Real-Time Java program.

The goal of our research was to develop technologies and techniques in support of real-time systems for the defense community. Our research focused on Real-Time Java implementation and analysis techniques. Real-Time Java is important for the defense community because it holds out the promise of enabling developers to apply COTS Java technology to specialized military embedded systems. It also promises to allow the defense community to utilize a large Java-literate workforce for building defense systems. Our research has delivered several techniques that may make Real-Time Java a better platform for developing embedded systems. These techniques include ways to implement scoped memories (a key Real-Time Java construct) without the possibility of introducing unexpected and potentially catastrophic delays in the execution of real-time threads, analyses that ensure the correct use of Real-Time Java scoped memories, analyses that compute how much memory is required to execute a given Real-Time Java program (potentially helping developers calculate how much memory must be including in a given system to ensure that the system will execute without running out of memory), and optimizations that reduce the amount of memory required to execute a Real-Time Java program.

The goal of our research was to develop technologies and techniques in support of real-time systems for the defense community. Our research focused on Real-Time Java implementation and analysis techniques. Real-Time Java is important for the defense community because it holds out the promise of enabling developers to apply COTS Java technology to specialized military embedded systems. It also promises to allow the defense community to utilize a large Java-literate workforce for building defense systems. Our research has delivered several techniques that may make Real-Time Java a better platform for developing embedded systems. These techniques include ways to implement scoped memories (a key Real-Time Java construct) without the possibility of introducing unexpected and potentially catastrophic delays in the execution of real-time threads, analyses that ensure the correct use of Real-Time Java scoped memories, analyses that compute how much memory is required to execute a given Real-Time Java program (potentially helping developers calculate how much memory must be including in a given system to ensure that the system will execute without running out of memory), and optimizations that reduce the amount of memory required to execute a Real-Time Java program.

The goal of our research was to develop technologies and techniques in support of real-time systems for the defense community. Our research focused on Real-Time Java implementation and analysis techniques. Real-Time Java is important for the defense community because it holds out the promise of enabling developers to apply COTS Java technology to specialized military embedded systems. It also promises to allow the defense community to utilize a large Java-literate workforce for building defense systems. Our research has delivered several techniques that may make Real-Time Java a better platform for developing embedded systems. These techniques include ways to implement scoped memories (a key Real-Time Java construct) without the possibility of introducing unexpected and potentially catastrophic delays in the execution of real-time threads, analyses that ensure the correct use of Real-Time Java scoped memories, analyses that compute how much memory is required to execute a given Real-Time Java program (potentially helping developers calculate how much memory must be including in a given system to ensure that the system will execute without running out of memory), and optimizations that reduce the amount of memory required to execute a Real-Time Java program.

The goal of our research was to develop technologies and techniques in support of real-time systems for the defense community. Our research focused on Real-Time Java implementation and analysis techniques. Real-Time Java is important for the defense community because it holds out the promise of enabling developers to apply COTS Java technology to specialized military embedded systems. It also promises to allow the defense community to utilize a large Java-literate workforce for building defense systems. Our research has delivered several techniques that may make Real-Time Java a better platform for developing embedded systems. These techniques include ways to implement scoped memories (a key Real-Time Java construct) without the possibility of introducing unexpected and potentially catastrophic delays in the execution of real-time threads, analyses that ensure the correct use of Real-Time Java scoped memories, analyses that compute how much memory is required to execute a given Real-Time Java program (potentially helping developers calculate how much memory must be including in a given system to ensure that the system will execute without running out of memory), and optimizations that reduce the amount of memory required to execute a Real-Time Java program.

May - 2018, question papers, old question paper, mumbai university, bscit, tybscit, tybscit semester v, semester v question paper, old course, semester v old course, old course question paper, mumbai university old course, Internet Security, SQL - 2, Visual Basic - 6, Elective - I, Advanced Java, Embedded Systems And Programming, Multimedia, Web Design and Internet Based Applications, Elective - II, BPR, ERP Systems, GIS, Management Information Systems

May - 2018, question papers, old question paper, mumbai university, bscit, tybscit, tybscit semester v, semester v question paper, old course, semester v old course, old course question paper, mumbai university old course, Internet Security, SQL - 2, Visual Basic - 6, Elective - I, Advanced Java, Embedded Systems And Programming, Multimedia, Web Design and Internet Based Applications, Elective - II, BPR, ERP Systems, GIS, Management Information Systems

May - 2018, question papers, old question paper, mumbai university, bscit, tybscit, tybscit semester v, semester v question paper, old course, semester v old course, old course question paper, mumbai university old course, Internet Security, SQL - 2, Visual Basic - 6, Elective - I, Advanced Java, Embedded Systems And Programming, Multimedia, Web Design and Internet Based Applications, Elective - II, BPR, ERP Systems, GIS, Management Information Systems

May - 2018, question papers, old question paper, mumbai university, bscit, tybscit, tybscit semester v, semester v question paper, old course, semester v old course, old course question paper, mumbai university old course, Internet Security, SQL - 2, Visual Basic - 6, Elective - I, Advanced Java, Embedded Systems And Programming, Multimedia, Web Design and Internet Based Applications, Elective - II, BPR, ERP Systems, GIS, Management Information Systems

With the development of software systems and their heavy reliance on them to help humans, especially imbedded systems, it was necessary to develop a smart system that would alleviate traffic congestion in the city of Samawah. The high traffic congestion in the city of Samawah, especially during official working hours (beginning and end of work), has made employees, students, workers and citizens spend a lot of time waiting for the vehicle and thus delay reaching their workplace, which has led to the need to find a real solution to this problem. Perhaps the best solution is to create an application that makes citizens aware of the locations of public transport vehicles accurately and invest time until they approach their location. This application relies mainly on the radio navigation system to provide communication between the user and the vehicle, which is abbreviated as (GSM), which works by determining the latitude and longitude. The application has been programmed to receive accurate information about the location of the vehicle and notify the user of its location continuously via the Global Positioning System (GPS). The maximum benefit can be achieved from the application by linking it with the largest possible number of vehicles and using it by a larger number of users to save time and effort. This application can be developed and expanded to include taxis, which further organizes the traffic process.