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| # | Type | Title | Author | Publisher | Pub. Year | Subjects | Call Number |
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| 1 | مقاله | Stability analysis of broadband cascode amplifiers in the presence of inductive parasitic components | Nikandish, G. | 2014 |
Amplifiers (electronic)
Electric resistance. Heterojunction bipolar transistors. MOS devices. Stability. Cascode amplifier. Common gates. Complementary metal oxide semiconductor process. Gate resistance. High frequency HF. Parasitic components. Series resistances. Stability analysis. Broadband amplifiers. |
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| 2 | مقاله | Even-Harmonic class-E CMOS oscillator | Barzgari, M. | Institute of Electrical and Electronics Engineers Inc, | 2021 |
CMOS integrated circuits.
Drain current. Harmonic analysis. Phase noise. Spectral density. Transistors. Class E. Commonmode. Differential and common-mode resonance. Differential mode. Even-harmonic. Even-harmonic class-E. Figure of merit. Harmonic shaping. Impulse sensitivity function. Impulse sensitivity functions. Poly-ground-shielded transformer. Q-factors. Transformer. Zero- Voltage Switching. Q factor measurement. |
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| 3 | مقاله | Even-Harmonic Class-E CMOS oscillator | Barzgari, M. | Institute of Electrical and Electronics Engineers Inc, | 2022 |
Differential and common-mode resonances.
Figure of merit (FoM) Harmonic shaping. Impulse sensitivity function (ISF) CMOS integrated circuits. Drain current. Harmonic analysis. Phase noise. Spectral density. Transistors. Class E. Commonmode. Differential and common-mode resonance. Differential mode. Even-harmonic. Even-harmonic class-E. Figure of merit. Impulse sensitivity function. Impulse sensitivity functions. Poly-ground-shielded transformer. Q-factors. Transformer. Zero- Voltage Switching. Q factor measurement. |
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| 4 | مقاله | A novel voltage-to-voltage logarithmic converter with high accuracy | Ghanaattian Jahromi, A. | 2011 |
Arithmetical circuits.
Logarithmic Amplifier. Logarithmic converter. |
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| 5 | مقاله | An optimum transient response synchronous buck converter employing a novel analog multiplier controller | Kargaran, M. | IEEE, | 2024 |
Analog multiplier.
Dynamic voltage scaling. Electromagnetic interference. Fast step response. Synchronous buck converter. Electromagnetic transients. Analogue multiplier. Buck converters. |
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| 6 | مقاله | An analog optimal waveform design for UWB communications | Ghanaatian Jahromi, A. | 2010 |
UWB pulse design optimization.
(PSD) Ultra-wide-band (UWB) communication. Analog signals. Analytical approach. FCC mask. Federal Communications Commission. Inverse Fourier transforms. Mathematical analysis. Power spectral. Signal power. Spectral masks. Spectral utilization. Ultra-wideband radio. UWB communication. UWB pulse design. Wave forms. Waveform designs. Communication. Design. Fourier transforms. Power spectral density. Wireless telecommunication systems. Optimization. |
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| 7 | مقاله | A current Re-use quadrature RF receiver front-end for low power applications: blixator circuit | Barzgari, M. | Institute of Electrical and Electronics Engineers Inc, | 2022 |
Blixator.
Bluetooth Low Energy (BLE) impulse sensitivity function (ISF) Internet of Things (IoT) low-noise amplifier-mixer-voltage-controlled oscillator (LMV) Bluetooth. Circuit oscillations. Internet of things. Low noise amplifiers. Low power electronics. Mixers (machinery) Noise figure. Operational amplifiers. Phase noise. Radio receivers. Variable frequency oscillators. Baluns. Bluetooth low energy. Impedance. Impulse sensitivity function. Impulse sensitivity functions. Inductor. Internet of thing. Low noiseamplifier. Low-noise amplifier-mixer-voltage-controled oscillator (LMV) Lower energies. Radiofrequencies. Receiver. Oscillistors. |
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| 8 | مقاله | A harmonic termination technique for single-and multi-band high-efficiency class-F MMIC power amplifiers | Nikandish, G. | 2014 |
Class F.
Monolithic microwave integrated circuit (MMIC) Multi-band. Power amplifier (PA) Aluminum gallium arsenide. Efficiency. Frequency bands. Harmonic analysis. Power amplifiers. Class-f. Harmonic termination. High-efficiency. MMIC power amplifier. Multiband. Power amplifiers (PAs) Power-added efficiency. |
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| 9 | مقاله | On Design of Wideband Compact-Size Ka/Q-Band High-Power Amplifiers | Alizadeh, A. | Institute of Electrical and Electronics Engineers Inc, | 2016 |
Ka-band.
Millimeter-wave (mm-wave) applications. Power amplifiers (PAs) Pseudomorphic HEMT (pHEMT) Q-band. Wideband amplifiers. Aluminum gallium arsenide. Amplifiers (electronic) Broadband amplifiers. Design. Frequency bands. Heterojunction bipolar transistors. Microwave amplifiers. Microwave integrated circuits. Monolithic microwave integrated circuits. AlGaAs-InGaAs. Average power. Chip dimensions. Design technique. High power amplifier. Monolithic microwave integrated circuits (MMIC) Pseudomorphic HEMT. Small signal gain. Power amplifiers. |
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| 10 | مقاله | Highly reliable 10-W X/Ku-band pHEMT monolithic microwave integrated circuit power amplifier | Frounchi, M. | Institution of Engineering and Technology, | 2016 |
Amplifiers (electronic)
Heterojunction bipolar transistors. High electron mobility transistors. Microwave amplifiers. Microwave integrated circuits. Power amplifiers. Semiconducting aluminum compounds. Design procedure. High power amplifier. Large-signals. Output power. Power-added efficiency. Pseudomorphic high electron mobility transistors. Small signal gain. X/Ku-band. Monolithic microwave integrated circuits. |
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| 11 | مقاله | A highly-linear dual-gain CMOS low-noise amplifier for X-band | Meghdadi, M. | 2017 |
Impedance.
Input matching. Linearity. Logic gates. Amplifiers (electronic) CMOS integrated circuits. Electric impedance. Impedance matching (electric) Noise figure. Switches. Turning. 1dB compression point. Current steering. Gain. Gain switching. Inductive degeneration. Input matching. Low noise amplifiers. |
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| 12 | مقاله | Dual-band design of integrated class-J power amplifiers in gaAs pHEMT technology | Alizadeh, A. | 2017 |
Class-J.
Dual-band power amplifiers (PAs) Monolithic microwave integrated circuit (MMIC) pHEMT. Aluminum gallium arsenide. Efficiency. Gallium arsenide. Semiconducting gallium. AlGaAs-InGaAs. Center frequency. Design flexibility. High-efficiency. pHEMT technology. Power amplifiers (PAs) Proof of concept. Theoretical formulation. Power amplifiers. |
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| 13 | مقاله | Waveform engineering at gate node of class-j power amplifiers | Alizadeh, A. | Institute of Electrical and Electronics Engineers Inc, | 2017 |
Class-J.
Harmonic-injection PAs. Harmonically tuned power amplifiers (PAs) Monolithic microwave integrated circuit. PAs. pHEMT. Aluminum gallium arsenide. Amplifiers (electronic) Transistors. Chip dimensions. Conduction angle. Matching networks. Mode of operations. PHEMT technology. Proof of concept. Voltage waveforms. Waveform engineerings. Power amplifiers. |
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| 14 | مقاله | Class-J2 Power Amplifiers | Alizadeh, A. | Institute of Electrical and Electronics Engineers Inc, | 2017 |
Class-J.
CMOS integrated circuits. Harmonic-injection power amplifiers. High-efficiency power amplifiers. Reduced conduction angle (RCA) Wideband power amplifiers. Amplifiers (electronic) Drain current. Efficiency. Harmonic analysis. Phase shift. Power amplifiers. Drain efficiency. Experimental validations. Higher efficiency. Mode of operations. Output matching network. Proof of concept. Second harmonics. Theoretical formulation. C (programming language) |
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| 15 | مقاله | Integrated output matching networks for class-J/J-1 power amplifiers | Alizadeh, A. | Institute of Electrical and Electronics Engineers Inc, | 2019 |
Class-J power amplifier.
Class-J-1 power amplifier. High-efficiency power amplifiers. Power amplifiers. Standard matching networks. Efficiency. Gallium arsenide. III-V semiconductors. Class J. High efficiency power amplifiers. Loss performance. Matching networks. Output matching network. Power amplifiers (PAs) Power-added efficiency. Proof of concept. |
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| 16 | مقاله | Class-J₂₃ Power Amplifiers | Alizadeh, A. | Institute of Electrical and Electronics Engineers Inc, | 2019 |
Class-J.
Class-J₂. Continuous-mode power amplifiers. Electrical engineering. hHrmonic-injection power amplifiers. High-efficiency power amplifiers. Impedance. Power generation. Reduced conduction angle (RCA) Space exploration. Transistors. Efficiency. Electric impedance. Gallium arsenide. Harmonic analysis. III-V semiconductors. Logic gates. Power amplifiers. Space research. Transistors. Class J. Conduction angle. Continuous mode. Harmonic injection. High efficiency power amplifiers. Space explorations. Space power generation. |
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| 17 | مقاله | A reconfigurable highly-linear CMOS transceiver core chip for X-band phased arrays | Meghdadi, M. | Elsevier GmbH, | 2020 |
Attenuators.
Core chip. Linearity. Low-noise amplifiers (LNAs) Phase shifter. Transceiver. Antenna phased arrays. Economic and social effects. Gain control. Noise figure. Phase shifters. Transceivers. Waveguide attenuators. CMOS transceivers. Core chips. DC-bias current. Digital calibrations. Linear transceiver. Phased array systems. Programmable gain amplifier. CMOS integrated circuits. |
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| 18 | مقاله | Class-J₂₃ power amplifiers | Alizadeh, A. | Institute of Electrical and Electronics Engineers Inc, | 2019 |
Class-J₂.
Continuous-mode power amplifiers. Harmonic-injection power amplifiers. Impedance. Reduced conduction angle (RCA) Space exploration. Efficiency. Electric impedance. Electrical engineering. Gallium arsenide. Harmonic analysis. III-V semiconductors. Logic gates. Power amplifiers. Power generation. Space research. Transistors. Class J. Conduction angle. Continuous mode. Harmonic injection. High efficiency power amplifiers. Space explorations. Space power generation. |
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| 19 | مقاله | Stabilisation of multi-loop amplifiers using circuit-based two-port models stability analysis | Pasdar, A. | John Wiley and Sons Inc, | 2021 |
Broadband amplifiers.
Circuit oscillations. Electric network analysis. Gallium arsenide. III-V semiconductors. Scattering parameters. Timing circuits. Distributed amplifier. Gaas phemt process. Hybrid matrix. Potential instability. Return ratio. Stability analysis. Stabilization networks. Two-port models. Stabilization. |
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| 20 | مقاله | A symmetrical fully-integrated CMOS doherty power amplifier | Ebazadeh, S. | 2024 |
CMOS.
Doherty power amplifier (DPA) Passive voltage gain. Peaking current. Power back off (PBO) C (programming language) CMOS integrated circuits. Doherty amplifiers. Gain measurement. 'current. CMOS. Doherty power amplifier. Passive voltage. Passive voltage gain. Peaking current. Power back off. Power backoff. Voltage gain. Efficiency. |
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