Loading...
Search for:
khorasani--h
0.111 seconds
| # | Type | Title | Author | Publisher | Pub. Year | Subjects | Call Number |
|---|---|---|---|---|---|---|---|
| 1 | مقاله | FEM simulation of two- and three-electrode spark gap discharges | Khorasani, S. | Sharif University of Technology, | 2002 |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 2 | مقاله | Assessing the GHG mitigation pathways in the Iran energy supply system | Sharifian, M. | 2024 |
Energy system model.
Iran. Carbon capture and utilization. Carbon sequestration. Greenhouse gas emissions. CO2 emissions. Energy supply system. Energy transformation. Energy transformation pathway. Energy-system models. GHG mitigation. Iran. Low carbon. OSeMOSYS. Transformation pathways. Low emission. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 3 | مقاله | Crosstalk suppression and high-fidelity measurement in 2-D tunneling of coupled Josephson junctions | Sadeghi, A. | 2012 |
2-D tunneling.
Crosstalk. Measurement fidelity. Phase qubit. Quantum information. Coupling capacitance. Crosstalk suppression. Current pulse. Dc-SQUID. Decoherence time. Josephson junctions. Measurement time. Quantum state. Quantum system. Single-shot. Two-qubit system. Josephson junction devices. Quantum computers. Quantum electronics. Quantum optics. SQUIDs. Quantum entanglement. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 4 | مقاله | Precision photonic band structure calculation of Abrikosov periodic lattice in type-II superconductors | Kokabi, A. | 2007 |
Band structure.
Crystal lattices. Magnetic fields. Numerical methods. Permittivity. Photonic band gap. Abrikosov lattice. Ginzburg-Landau equation. Lattice structure. Optical electronics. Superconducting materials. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 5 | مقاله | An analytical and experimental study on dampening material effects on the dynamic behavior of free-free aluminum sheets | Khorasani, R. | Growing Science, | 2021 |
Experimental method.
Dynamic behavior. Dampening material. Vibration absorbing coating. Analytical solution. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 6 | مقاله | Cavity quantum electrodynamics in the ultrastrong coupling regime | Ahmadi, E. | 2011 |
Jaynes-Cummings-Paul model.
Bosonic fields. Cavity Quantum Electrodynamics. Coupling frequencies. Electromagnetic cavity. Mathematical formulation. Mathematical solutions. Non-sinusoidal. Operator algebras. Rotating wave approximations. Single mode. Time variations. Transition frequencies. Two-level atom. Ultrastrong coupling. Mathematical operators. Quantum electronics. Quantum optics. Electrodynamics. Numerical method. Numerical model. Quantum mechanics. Ultrasonics. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 7 | مقاله | A combinatorial approach for active and reactive power flow tracking | Rashidinejad, A. | 2010 |
Electric power transmission.
Loss allocation. Power flow tracking. Real & reactive power approximation. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 8 | مقاله | Orbital angular momentum with the approach of using in sub-6GHz 5G mobile communications for wireless applications | Khorasani, A. | 2024 |
5G mobile communication systems.
Angular momentum. Beam forming networks. Beamforming. Electromagnetic waves. Microwave antennas. MIMO systems. Advanced antennas. Antenna system. Beamforming methods. Communications networks. Mobile communications. Multi-Input Multi-Output systems. Network channel. Orbital angular momentum. Wireless application. Channel capacity. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 9 | مقاله | Abrupt PN Junctions: Analytical solutions under equilibrium and non-equilibrium | Khorasani, S. | Elsevier Ltd, | 2016 |
Diodes.
Physical electronics. Semiconductor devices. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 10 | مقاله | Propagation of light in Schwarzschild geometry | Khorasani, S. | 2010 |
Equivalent medium theory.
Black holes. Closest distance. General Relativity. Gravitational fields. Gravitational waves. Interferometric detection. Irrotational. Medium theory. Numerical simulation. Optical interferometry. Ray-tracing equations. Schwarzschild. Schwarzschild geometry. Computer simulation. Electric field effects. Electrooptical devices. Gravity waves. Interferometry. Optical anisotropy. Optoelectronic devices. Ray tracing. Relativity. Stars. Gravitational effects. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 11 | مقاله | New basis functions for wave equation | Khorasani, S. | Sharif University of Technology | 2016 |
Inhomogeneous optical media.
Eigenvalues and eigenfunctions. Functions. Physical optics. Quantum optics. Basis functions. Complex planes. Confined modes. Differential transfer matrix methods. Divergent behaviors. Electromagnetic optics. Initial conditions. Optical media. Transfer matrix method. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 12 | مقاله | A proof for poisson bracket in non-commutative algebra of quantum mechanics | Khorasani, S. | EJTP Publisher, | 2016 |
Kramers-Kronig Identities.
Non-commutative algebra. Poisson bracket. Quantum mechanics. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 13 | مقاله | Higher-order interactions in quantum optomechanics: Analytical solution of nonlinearity | Khorasani, S. | 2017 |
Langevin equations.
Nonlinear interactions. Optomechanics. Quantum optics. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 14 | مقاله | Higher-order interactions in quantum optomechanics: Revisiting theoretical foundations | Khorasani, S. | MDPI AG, | 2017 |
Nonlinear interactions.
Optomechanics. Quantum physics. Special relativity. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 15 | مقاله | Time operator in relativistic quantum mechanics | Khorasani, S. | 2017 |
Foundations of quantum mechanics.
Operator theory. Quantum mechanics. Special relativity. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 16 | مقاله | Diamond configuration for non-reciprocal transmission | Khorasani, S. | Institute of Electrical and Electronics Engineers Inc, | 2017 |
langevin equations.
Differential equations. Quantum optics. Design parameters. Electromagnetic signals. High isolation. Langevin equation. Nonreciprocity. Parametric interactions. Reciprocal transmissions. System scheme. Wave transmission. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 17 | مقاله | Third-order optical nonlinearity in two-dimensional transition metal dichalcogenides | Khorasani, S. | 2018 |
2D materials.
Nonlinear optics. Quantum optics. Transition metal dichalcogenides. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 18 | مقاله | Clearance effects on dynamic behavior of a continuous mechanical system | Hosseini Kordkheili, S. A. | SAGE Publications Inc, | 2015 |
Analytical solution.
Damping. Degrees of freedom (mechanics) Nanocantilevers. clearance. Dynamic behaviors. Experimental methods. Linear stiffness. Mechanical systems. ON dynamics. Single degree of freedom structures. Structural damping. Cantilever beams. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
| 19 | مقاله | Optical bistable switching with Kerr nonlinear materials exhibiting a finite response time in two-dimensional photonic crystals | Naqavi, A. | 2010 |
Optical bistability.
Analytical solutions. Bi-stability. Bistable switches. Coupled mode theory. Hystersis loop. Input power. Kerr materials. Kerr-nonlinear materials. Material nonlinear. Non-linearity. Nonlinear finite difference. Optical bistable switching. Optical pulse. Optical switching. Output pulse. Photonics crystals. Power levels. Pulse evolution. Pulse-shaping. Response time. Steady-state response. System dynamics. Time evolutions. Two-dimensional photonic crystals. Electromagnetic fields. Finite difference time domain method. Nonlinear optics. Optical instruments. Optical kerr effect. Optical materials. Optical switches. Photonic devices. Relaxation time. Time switches. Photonic crystals. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|
|
| 20 | مقاله | An analytical approach for evaluating the optical spectrum emitted from a strongly-coupled single quantum-dot photonic-crystal cavity system | Ahmadi, E. | 2010 |
FDTD.
Analytical approach. Analytical results. Cavity quantum electrodynamincs. Dielectric functions. FDTD method. Frequency spectra. Green function. Hexagonal structures. K-function. Optical spectra. Photonic crystal cavities. Quantum Dot. Quantum radiation. Single excitons. Single quantum. Spatial coordinates. Strong coupling. Crystal structure. Electric fields. Excitons. Finite difference time domain method. Function evaluation. Optical waveguides. Phonons. Photonic devices. Semiconductor quantum dots. Spectroscopy. Photonic crystals. |
$stringUtil.getCallnumberViewFormat($resource.getCallNumber())
|