Assessment of UHF Frequency Range for Failure Classification in Power Transformers.. Sensors 2024, (24. Jg)15:5056, 2024. [PUMA: Assessment Classification Failure Frequency Power Range Transformers UHF for in of]
Impact of Applied Voltage on the Frequency Response Measurements for Transient Modeling of Capacitive Voltage Transformers.. 1-4, August 2024. [PUMA: Applied Capacitive Frequency Impact Measurements Modeling Response Transformers. Transient Voltage for of on the]
Analysis and Modeling the Frequency Response of Rotating Machines Regarding Fault Diagnosis Using SFRA.. IEEE Transactions on Energy Conversion, (39)1:747-756, April 2024. [PUMA: Analysis Diagnosis Fault Frequency Machines Modeling Regarding Response Rotating SFRA Using and of the]
Frequency Range of UHF PD Measurements in Power Transformers.. Energies 2023, (16)3Januar 2023. [PUMA: Frequency Measurements PD Power Range Transformers UHF in of]
Characterization of Supraharmonic Emission from Three Different Electric Vehicle Charging Infrastructures in Time and Frequency Domain. Energies 2022, (15)2Januar 2022. [PUMA: Characterization Charging Different Domain Electric Emission Frequency Infrastructures Supraharmonic Three Time Vehicle and from in of]
Analogue feed-forward carrier recovery for millimetre-wave broadband wireless links. IET Microwaves, Antennas and Propagation, (14)5:366-373, 2020. [PUMA: LO analogue band-pass bandpass block, broadband carrier communication communication, conversion demodulation, direct divider-by-n, dividers, feed-forward feed-through, feedforward, filter, filters, frequencies, frequency high independent injection injection-locking links, local locked millimetre millimetre-wave mode, modulation-type narrowband networks, oscillator oscillators, port, radio recovery recovery, signal strong systems, transceivers, transmitter up-converter, wave wireless]
High-yield design technologies for InAlAs/InGaAs/InP-HEMT analog-digital ICs. IEEE Transactions on Microwave Theory and Techniques, (44)12:2361-2368, Dezember 1996. [PUMA: 12.05 4.49 GHz;0.1 ICs;low-noise MIMIC;millimetre amplifiers;Indium amplifiers;SCFL amplifiers;frequency analog-digital analogue-digital analysis arsenide;Frequency arsenide;III-V circuit circuits;field circuits;mixed compounds;Indium compounds;aluminium compounds;gallium computing;indium conversion;Low-noise dB;11.55 dB;InAlAs-InGaAs-InP;Indium design design;HEMT dividers;T-shaped dividers;circuit effect frequency gain;fabrication gallium gate;recess-etch integrated micron;4.11 noise;Circuit optimization;Circuit phosphide;HEMTs;Fabrication;Design resistance;circuit semiconductors;design semiconductors;high-yield simulation;60 stability static stopper;III-V technologies;HEMT to wave yield;integrated yield;load]
Transformer Winding Condition Assessment Using Feedforward Artificial Neural Network and Frequency Response Measurements.. Energies 2021, (14)3227Mai 2021. [PUMA: Artificial Assessment Condition Feedforward Frequency Measurements. Network Neural Response Transformer Using Winding and]
Site Indices for High Frequency Harmonics for Long Term Power Quality Monitoring.. September 2021. [PUMA: Frequency Harmonics High Indices Long Monitoring. Power Quality Site Term for]
Distributed model predictive load frequency control of multi-area interconnected power system. Int. J. Electrical Power & Energy Systems, (62):289 - 298, 2014. [PUMA: Load frequency control from:ist_bib]
Distributed model predictive load frequency control of multi-area interconnected power system. Int. J. Electrical Power & Energy Systems, (62):289 - 298, 2014. [PUMA: Load control frequency]
Evaluation of the Frequency Information Contained in PD Signals for Localization in Power Cable Monitoring. 288-293, 2020. [PUMA: Cable Contained Evaluation Frequency Information Localization Monitoringsend:unibiblio PD Power Signals for in of the]
Study of the Influence of Winding and Sensor Design on Ultra-High Frequency Partial Discharge Signals in Power Transformers. Sensors 2020, (20)2020. [PUMA: Design Discharge Frequency Influence Partial Power Sensor Signals Transformerssend:unibiblio Ultra-High Winding of]
Analysis of Statistical Methods for Assessment of Power Transformer Frequency Response Measurements. 2020. [PUMA: Analysis Assessment Frequency Measurements Methods Power Response Statistical Transformer]
Distributed model predictive load frequency control of multi-area interconnected power system. Int.\ J.\ Electrical Power & Energy Systems, (62):289 - 298, 2014. [PUMA: Load control frequency unchecked]
Towards Objective Interpretation of Frequency Response of Power Transformers. 2019. [PUMA: Frequency Interpretation Objective Power Response Towards Transformers]
Performance Estimation for Broadband Multi-Gigabit Millimeter and Sub-Millimeter Wave Wireless Communication Links. IEEE Trans. on Microwave Theory and Techniques, (63)10:3288--3299, 2015. [PUMA: (BER);complex (EVM);millimeter-wave (MMICs);performance (SER);wireless (mmw) amplitude bandwidths;in-phase broadband channels;E-band characteristics;performance circuits communication communication;Bit communication;mmw error error;submillimeter-wave estimation;performance estimation;symbol factor;local frequency frontend frontend;broadband imbalance;in-phase imbalance;limiting imbalance;quadrature imperfection;performance integrated keying keying;radio limiting limits;quadrature links;broadband links;channel magnitude millimeter-wave modulated modulation modulation;error monolithic multigigabit networks;error networks;submillimetre noise;Wireless noise;extremely noise;nonideal noise;quadrature oscillator phase phase-shift range;symbol rate rate;Estimation;Modulation;Phase rates;wireless shift signals;relative statistics;millimetre submillimeter-wave systems;Bandwidth;Bit vector waves;phase waves;wireless wireless]
Active frequency multiplier-by-nine \MMIC\ for millimeter-wave signal generation. in Proc. German Microwave Conference (GeMIC), Darmstadt, 1--4, 2011. [PUMA: 100 87 99 Fraunhofer GHz GHz;millimeter-wave HEMT IAF MMIC;buffer amplifier;frequency convertors;phase electron frequency generation;phase-noise generators; measurements;size metamorphic mobility multiplier-by-nine multipliers;high nm;MMIC;amplifiers;frequency noise;signal signal technology;X-band;active to transistors;millimetre wave]
A Miniaturized Unit Cell for Ultra-Broadband Active Millimeter-Wave Frequency Multiplication. Microwave Theory and Techniques, IEEE Transactions on, (62)6:1343--1351, Juni 2014. [PUMA: (MMIC) Field analysis;Logic and circuit circuits circuits;microwave devices devices;microwave effect frequency gates;MMICs;Millimeter integrated millimeter-wave monolithic multipliers;III--V multipliers;millimeter-microwave transistors;Harmonic transistors;Topology;GaAs wave]
A 200 GHz Monolithic Integrated Power Amplifier in Metamorphic HEMT Technology. Microwave and Wireless Components Letters, IEEE, (19)6:410--412, Juni 2009. [PUMA: 100 186 212 GHz GHz, HEMT amplifier, amplifiers amplifierscommunication electron frequency high high-resolution imaging integrated metamorphic millimeter-wave millimetre mobility monolithic nm,MMIC power radar, size systems, technology, to transistor transistors, wave]