Loading...
Search for:
azad--a
0.117 seconds
| # | Type | Title | Author | Publisher | Pub. Year | Subjects | Call Number |
|---|---|---|---|---|---|---|---|
| 1 | مقاله | Optimal tuning of sliding mode controller parameters using LQR input trend | Azad, R. K. | 2012 |
Genetic Algorithm.
Optimal parameter tuning. Particle swarm optimization. Inertia matrix. Initial guess. Linear quadratic regulator. Linearized systems. Near-optimal performance. Non-linear model. Optimal parameter. Optimal space. Optimal tuning. Particle swarm optimization algorithm. Sliding mode controller. Sliding modes. Trial and error. Virtual satellite. Attitude control. Intelligent systems. Particle swarm optimization (PSO) Sliding mode control. Genetic algorithms. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 2 | مقاله | A class of ball-and-bin problems and its application to mesh networks | Sarbazi Azad, H. | 2003 |
Ball-and-bin problem.
Combinatorial properties. Mesh network. Topological properties. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 3 | مقاله | Preface | Hurson, A. R. | Academic Press Inc, | 2016 |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 4 | مقاله | Preface | Hurson, A. R. | Academic Press Inc, | 2018 |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 5 | مقاله | Analytic performance comparison of hypercubes and star graphs with implementation constraints | Kiasari, A. E. | 2008 |
Boolean functions.
Algorithmic properties. Analytical modelling. Bisection bandwidth. Comparison results. Comparison studies. Hypercubes. Implementation constraints. Parameter changes. Performance comparison. Star graphs. Superior performance. Traffic loads. Virtual channels (VC) Working conditions. Graph theory. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 6 | مقاله | Preface | Hurson, A. R. | Academic Press Inc, | 2022 |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 7 | مقاله | A morphable phase change memory architecture considering frequent zero values | Arjomand, M. | 2011 |
Low power.
Memory lifetime. PCM main memory. Zero-extended value. Access time. Area efficient. Caching mechanism. Cell size. Coding and decoding. Cost-efficient. Feature sizes. Lifetime enhancement. Lower density. Main memory. Memory cell. Micro-architecture design. Multilevel cell. Multiple bits. NO reduction. Power efficient. Zero values. Cells. Codes (symbols) Design. Memory architecture. Metadata. Phase change memory. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 8 | مقاله | Virtual point-to-point connections for NoCs | Modarressi, M. | 2010 |
Performance evaluation.
Power consumption. Virtual point-to-point (VIP) Multiprocessor system on chips. Network on chip. Virtual points. Application specific integrated circuits. Biological materials. Embedded systems. Microprocessor chips. Multiprocessing systems. Packet networks. Programmable logic controllers. Switching circuits. VLSI circuits. Routers. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 9 | مقاله | Special issue on network-based high performance computing | Sarbazi-Azad, H. | 2010 |
Computer Science, general.
Processor Architectures. Programming Languages, Compilers, Interpreters. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 10 | مقاله | A generic FPGA prototype for on-chip systems with network-on-chip communication infrastructure | Arjomand, M. | 2014 |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
||
| 11 | مقاله | Application-aware topology reconfiguration for on-chip networks | Modarressi, M. | 2011 |
Application-specific systems-on-chip (SoCs)
Multi-application-based design. Networks-on-chip (NoC) Performance. Power consumption. Reconfigurable systems. Architectural attributes. Chip multiprocessor. Multi core. Multiple applications. Network latencies. Network mapping. Networks on chips. New applications. NoC architectures. On-chip networks. Optimization method. Re-configurable. Reconfigurable architecture. Running applications. System on chips. Systems on chips. Traffic pattern. Application specific integrated circuits. Electric power utilization. Microprocessor chips. Network architecture. Optimization. Structural design. Topology. Routers. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 12 | مقاله | Virtual point-to-point connections for NoCs | Modarressi, M. | 2010 |
Multiprocessor system-on-chip (MPSoC)
Network-on-chip (NoC) Virtual point-to-point (VIP) Performance evaluation. Power Consumption. Virtual points. Application specific integrated circuits. Biological materials. Embedded systems. Microprocessor chips. Multiprocessing systems. Packet networks. Programmable logic controllers. Switching circuits. VLSI circuits. Routers. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 13 | مقاله | Special issue on network-based high performance computing | Sarbazi Azad, H. | 2010 |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
||
| 14 | مقاله | Reconfigurable multicast routing for Networks on Chip | Nasiri, F. | Elsevier | 2016 |
Power consumption.
Electric power utilization. Memory architecture. Multicasting. Network-on-chip. Power management (telecommunication) Reconfigurable hardware. Routers. Routing algorithms. Routing protocols. System-on-chip. VLSI circuits. Barrier synchronization. Clock Synchronization. Distributed shared memory systems. Message latency. Multicast routing. Multicast routing protocol. Reconfigurable network. Unicast routing algorithms. Network routing. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 15 | مقاله | An efficient dynamically reconfigurable on-chip network architecture | Modarressi, M. | 2010 |
Application-specific.
Destination nodes. Inter-node connections. Intermediate routers. Network traffic. NoC. Performance. Power. Re-configurable. Reconfigurable architecture. Runtimes. Traffic pattern. Computer aided design. Embedded systems. Routers. Topology. Network architecture. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 16 | مقاله | On the link excess life in mobile wireless networks | Nayebi, A. | 2007 |
Buffer storage.
Computer simulation. Electronic document exchange. Mathematical models. Telecommunication networks. Velocity distribution. Link Excess Life. Mobile wireless networks. Protocol design. Topology control. Wireless networks. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 17 | مقاله | Empirical performance evaluation of adaptive routing in necklace hypercubes: a comparative study | Meraji, S. | 2007 |
Bandwidth.
Computer simulation. Constraint theory. Routing algorithms. VLSI circuits. Implementation constraints. Necklace hypercube. Network topology. Performance evaluation. Hypercube networks. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 18 | مقاله | The impact of stationary nodes on the performance of wireless mobile networks | Nayebi, A. | 2007 |
Global link.
Link excess life. Stationary nodes. Computer simulation. Probability density function. Problem solving. Telecommunication links. Wireless networks. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 19 | مقاله | Analytic modeling of channel traffic in n-cubes | Sarbazi Azad, H. | Springer Verlag, | 2006 |
Computer science.
Mathematical models. Network protocols. Parameter estimation. Telecommunication traffic. Analytical models. Channel traffic. Multicomputer systems. Network channels. Communication channels (information theory) |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 20 | مقاله | Seismic active pressure distribution history behind rigid retaining walls | Azad, A. | 2008 |
Earthquake effects.
Pressure distribution. Shear waves. Structural design. Active earth pressure. Horizontal slice method. Pseudo-dynamic method. Pseudo-static method. Retaining walls. Dynamic analysis. Earth pressure. Method of slices. Retaining wall. S-wave. Seismic design. Wave velocity. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|