Dynamic hardware generation reduces the number of FPGA resources needed and speeds up the application by optimizing the configuration for the exact problem at hand at run-time. If the problem changes, the system needs to be reconfigured. When this occurs too often, the total reconfiguration overhead is too high and the benefit of using dynamic hardware generation vanishes. Hence, it is important to minimize the number of reconfigurations
The dynamic reconfiguration of an FPGA has many advantages, but the overhead from the process reduce...
A multi-mode circuit implements the functionality of a limited number of circuits, called modes, of ...
When implementing multimedia applications, solutions in dedicated hardware are chosen only when the ...
Dynamic hardware generation reduces the number of FPGA resources needed and speeds up the applicatio...
Dynamic hardware generation reduces the number of FPGA resources needed and speeds up an application...
Dynamic hardware generation reduces the number of FPGA resources needed and speeds up the applicatio...
Adaptive embedded systems are currently investigated as an answer to more stringent requirements on ...
Dynamic Circuit Specialization is used to optimize the implementation of a parameterized application...
In many applications, subsequent data manipulations differ only in a small set of parameter values. ...
Using Dynamic Partial Reconfiguration (DPR) of FPGAs, several circuits can be time-multiplexed on th...
Dynamic Circuit Specialization is used to optimize the implementation of a parameterized application...
Dynamic FPGA reconfiguration represents an overhead that can be critical to the performance of a rea...
The configuration of an FPGA is a process of customizing the functionality implemented by the FPGA f...
Field-Programmable Gate Arrays (FPGAs) have become promising mapping fabric for the implementation o...
Les capacités d'auto-reconfiguration des architectures FPGA modernes ouvrent la voie à des applicati...
The dynamic reconfiguration of an FPGA has many advantages, but the overhead from the process reduce...
A multi-mode circuit implements the functionality of a limited number of circuits, called modes, of ...
When implementing multimedia applications, solutions in dedicated hardware are chosen only when the ...
Dynamic hardware generation reduces the number of FPGA resources needed and speeds up the applicatio...
Dynamic hardware generation reduces the number of FPGA resources needed and speeds up an application...
Dynamic hardware generation reduces the number of FPGA resources needed and speeds up the applicatio...
Adaptive embedded systems are currently investigated as an answer to more stringent requirements on ...
Dynamic Circuit Specialization is used to optimize the implementation of a parameterized application...
In many applications, subsequent data manipulations differ only in a small set of parameter values. ...
Using Dynamic Partial Reconfiguration (DPR) of FPGAs, several circuits can be time-multiplexed on th...
Dynamic Circuit Specialization is used to optimize the implementation of a parameterized application...
Dynamic FPGA reconfiguration represents an overhead that can be critical to the performance of a rea...
The configuration of an FPGA is a process of customizing the functionality implemented by the FPGA f...
Field-Programmable Gate Arrays (FPGAs) have become promising mapping fabric for the implementation o...
Les capacités d'auto-reconfiguration des architectures FPGA modernes ouvrent la voie à des applicati...
The dynamic reconfiguration of an FPGA has many advantages, but the overhead from the process reduce...
A multi-mode circuit implements the functionality of a limited number of circuits, called modes, of ...
When implementing multimedia applications, solutions in dedicated hardware are chosen only when the ...