CV
C. Vocks
astro-ph.IMastro-ph.HEastro-ph.SRastro-ph.GAphysics.space-phastro-ph.COastro-ph.EPphysics.plasm-phhep-exphysics.ao-ph
On Valency
published · living versionsW_yqzckc6g·v1 · currentpublished
LOFAR MSSS: Detection of a low-frequency radio transient in 400 hrs of monitoring of the North Celestial Pole
with A. J. Stewart, R. P. Fender, J. W. Broderick, T. E. Hassall +97
1 version
W_hfxes35b·v1published
Preprints & journals
65 papers in the corpus · 2012–2026Probing Variations in Earth's Ionosphere Using Pulsars2608.06744v1 · Yanqing Cai, Ziwei Wu, Weiwei Zhu et al.2026 · 0 citationsarXiv
Pulsar scintillation studies with LOFAR III. Annual variations in PSR~J0814$+$74292604.02681v1 · Yanqing Cai, Ziwei Wu, Weiwei Zhu et al.2026 · 0 citationsA&A 710, A52 (2026)
Probing the magnetic field of a coronal mass ejection with PSR J1022+10012603.18051v3 · El Mehdi Zahraoui, Hannah T. Rudisser, Golam M. Shaifullah et al.2026 · 0 citationsarXiv
Combining the second data release of the European Pulsar Timing Array with low-frequency pulsar data2510.04639v2 · F. Iraci, A. Chalumeau, C. Tiburzi et al.2025 · 5 citationsarXiv
Source location and evolution of a multi-lane type II radio burst2505.12932v1 · P. Zucca, P. Zhang, K. Kozarev et al.2025 · 3 citationsA&A 703, A271 (2025)
A parametric study of solar wind properties and composition using fluid and kinetic solar wind models2504.05177v1 · Paul Lomazzi, Alexis P. Rouillard, Michael A. Lavarra et al.2025 · 1 citationarXiv
Resolving spatial and temporal shock structures using LOFAR observations of type II radio bursts2502.16934v1 · D. E. Morosan, I. C. Jebaraj, P. Zhang et al.2025 · 6 citationsarXiv
Determining the acceleration regions of in situ electrons using remote radio and X-ray observations2412.06477v1 · D. E. Morosan, N. Dresing, C. Palmroos et al.2024 · 5 citationsA&A 693, A296 (2025)
Exploring the time variability of the Solar Wind using LOFAR pulsar data2409.09838v1 · S. C. Susarla, A. Chalumeau, C. Tiburzi et al.2024 · 18 citationsA&A 692, A18 (2024)
Imaging spectroscopy of spectral bump in a type II radio burst2403.19451v1 · Peijin Zhang, Diana E. Morosan, Pietro Zucca et al.2024 · 0 citationsarXiv
A Gaussian-processes approach to fitting for time-variable spherical solar wind in pulsar timing data2401.07917v1 · Iuliana C. Nitu, Michael J. Keith, Caterina Tiburzi et al.2024 · 12 citationsarXiv
Pulsar Scintillation Studies with LOFAR: II. Dual-frequency scattering study of PSR J0826+2637 with LOFAR and NenuFAR2302.02722v2 · Ziwei Wu, William A. Coles, Joris P. W. Verbiest et al.2023 · 8 citationsarXiv
Interferometric imaging of the type IIIb and U radio bursts observed with LOFAR on 22 August 20172211.12756v1 · Bartosz Dabrowski, Katarzyna Mikula, Pawel Flisek et al.2022 · 6 citationsA&A 669, A52 (2023)
The LOFAR Tied-Array All-Sky Survey: Timing of 35 radio pulsars and an overview of the properties of the LOFAR pulsar discoveries2211.11080v1 · E. van der Wateren, C. G. Bassa, S. Cooper et al.2022 · 8 citationsA&A 669, A160 (2023)
Imaging of the Quiet Sun in the Frequency Range of 20-80 MHz2205.00065v1 · PeiJin Zhang, Pietro Zucca, Kamen Kozarev et al.2022 · 24 citationsarXiv
Exploring the circular polarisation of low-frequency solar radio bursts with LOFAR2203.14674v1 · Diana E. Morosan, Juska E. Rasanen, Anshu Kumari et al.2022 · 20 citationsarXiv
Pulsar scintillation studies with LOFAR. I. The census2203.10409v1 · Ziwei Wu, Joris P.W. Verbiest, Robert A. Main et al.2022 · 28 citationsA&A 663, A116 (2022)
The Kinetic Expansion of Solar-Wind Electrons: Transport Theory and Predictions for the very Inner Heliosphere2201.00079v2 · Seong-Yeop Jeong, Daniel Verscharen, Christian Vocks et al.2022 · 11 citationsarXiv
Observing Jupiter's radio emissions using multiple LOFAR stations: a first case study of the Io-decametric emission using the Irish IE613, French FR606 and German DE604 stations2111.09599v2 · Corentin K. Louis, Caitriona M. Jackman, Jean-Mathias Griessmeier et al.2021 · 4 citationsRASTAI 1, 48-57 (2022)
Sub-arcsecond imaging with the International LOFAR Telescope I. Foundational calibration strategy and pipeline2108.07283v1 · L. K. Morabito, N. J. Jackson, S. Mooney et al.2021 · 90 citationsA&A 658, A1 (2022)
Sub-arcsecond imaging with the International LOFAR Telescope: II. Completion of the LOFAR Long-Baseline Calibrator Survey2108.07284v1 · Neal Jackson, Shruti Badole, John Morgan et al.2021 · 35 citationsA&A 658, A2 (2022)
LOFAR imaging of Cygnus A -- Direct detection of a turnover in the hotspot radio spectra2103.16961v1 · J. P. McKean, L. E. H. Godfrey, S. Vegetti et al.2021 · 67 citationsMNRAS, 463, 3143 (2016)
LOFAR imaging of the solar corona during the 2015 March 20 solar eclipse2102.05552v1 · A. M. Ryan, P. T. Gallagher, E. P. Carley et al.2021 · 6 citationsA&A 648, A43 (2021)
The impact of Solar wind variability on pulsar timing2012.11726v1 · C. Tiburzi, G. M. Shaifullah, C. G. Bassa et al.2020 · 58 citationsA&A 647, A84 (2021)
Dispersion measure variability for 36 millisecond pulsars at 150MHz with LOFAR2011.13742v1 · J. Y. Donner, J. P. W. Verbiest, C. Tiburzi et al.2020 · 50 citationsA&A 644, A153 (2020)
Interferometric Imaging with LOFAR Remote Baselines of the Fine Structures of a Solar Type IIIb Radio Burst2005.09419v1 · PeiJin Zhang, Pietro Zucca, Sarrvesh Seethapuram Sridhar et al.2020 · 20 citationsA&A 639, A115 (2020)
LOFAR 144-MHz follow-up observations of GW1708172004.01726v1 · J. W. Broderick, T. W. Shimwell, K. Gourdji et al.2020 · 11 citationsarXiv
A LOFAR Observation of Ionospheric Scintillation from Two Simultaneous Travelling Ionospheric Disturbances2003.04013v1 · Richard A. Fallows, Biagio Forte, Ivan Astin et al.2020 · 37 citationsarXiv
Cassiopeia A, Cygnus A, Taurus A, and Virgo A at ultra-low radio frequencies2002.10431v1 · F. de Gasperin, J. Vink, J.P. McKean et al.2020 · 47 citationsarXiv
The LOFAR Tied-Array All-Sky Survey: Timing of 21 pulsars including the first binary pulsar discovered with LOFAR2001.03866v1 · C. M. Tan, C. G. Bassa, S. Cooper et al.2020 · 27 citationsarXiv
Shock location and CME 3D reconstruction of a solar type II radio burst with LOFAR1804.01025v1 · P. Zucca, D. E. Morosan, A. P. Rouillard et al.2018 · 86 citationsA&A 615, A89 (2018)
Multifrequency behaviour of the anomalous events of PSR J0922+06381803.08822v1 · G. Shaifullah, C. Tiburzi, S. Os\lowski et al.2018 · 6 citationsarXiv
Community Paper on Radio Astronomy Infrastructures1802.08467v1 · Eduardo Ros, Dominik J. Schwarz, Christian Vocks2018 · 0 citationsarXiv
The Association of a J-burst with a Solar Jet1707.03428v2 · D. E. Morosan, P. T. Gallagher, R. A. Fallows et al.2017 · 11 citationsA&A 606, A81 (2017)
How Expanded Ionospheres of Hot Jupiters Can Prevent Escape of Radio Emission Generated by the Cyclotron Maser Instability1706.06349v1 · Christof Weber, Helmut Lammer, Ildar Shaikhislamov et al.2017 · 55 citationsarXiv
Synthetic IRIS spectra of the solar transition region: Effect of high-energy tails1705.08728v1 · E. Dzifcakova, C. Vocks, J. Dudik2017 · 8 citationsarXiv
Suprathermal electron distributions in the solar transition region1610.03789v1 · C. Vocks, E. Dzifcakova, G. Mann2016 · 18 citationsarXiv
Separating Nightside Interplanetary and Ionospheric Scintillation with LOFAR1608.04504v1 · R.A. Fallows, M.M. Bisi, B. Forte et al.2016 · 29 citationsarXiv
LBCS: the LOFAR Long-Baseline Calibrator Survey1608.02133v2 · N. Jackson, A. Tagore, A. Deller et al.2016 · 74 citationsA&A 595, A86 (2016)
Corrigendum: A large light-mass component of cosmic rays at 1017-1017.5 electronvolts from radio observations.27437581 · Buitink, S, Corstanje, A, Falcke, H et al.2017 · 3 citationsNature. 2016;537(7621):572
A large light-mass component of cosmic rays at 10(17)-10(17.5) electronvolts from radio observations.26935696 · Buitink, S, Corstanje, A, Falcke, H et al.2016 · 157 citationsNature. 2016;531(7592):70-3
Kinetic Simulation of Slow Magnetosonic Waves and Quasi-periodic Upflows in the Solar Corona1601.01823v1 · Wenzhi Ruan, Jiansen He, Lei Zhang et al.2016 · 16 citationsarXiv
Imaging Jupiter's radiation belts down to 127 MHz with LOFAR1511.09118v1 · J. N. Girard, P. Zarka, C. Tasse et al.2015 · 51 citationsA&A 587, A3 (2016)
LOFAR MSSS: Detection of a low-frequency radio transient in 400 hrs of monitoring of the North Celestial Pole1512.00014v1 · A. J. Stewart, R. P. Fender, J. W. Broderick et al.2015 · 71 citationsMonthly Notices of the Royal Astronomical Society, 2016, Volume 456, Issue 3, p.2321-2342on Valency
The LOFAR Multifrequency Snapshot Sky Survey (MSSS) I. Survey description and first results1509.01257v1 · G.H. Heald, R.F. Pizzo, E. Orr'u et al.2015 · 110 citationsarXiv
LOFAR tied-array imaging and spectroscopy of solar S bursts1507.07496v1 · D. E. Morosan, P. T. Gallagher, P. Zucca et al.2015 · 56 citationsA&A 580, A65 (2015)
LOFAR discovery of a quiet emission mode in PSR B0823+261505.03064v1 · C. Sobey, N. J. Young, J. W. T. Hessels et al.2015 · 44 citationsarXiv
The peculiar radio galaxy 4C 35.06: a case for recurrent AGN activity?1504.06642v1 · A. Shulevski, R. Morganti, P. D. Barthel et al.2015 · 35 citationsA&A 579, A27 (2015)
Probing Atmospheric Electric Fields in Thunderstorms through Radio Emission from Cosmic-Ray-Induced Air Showers.25955053 · Schellart, P, Trinh, T N G, Buitink, S et al.2015 · 54 citationsPhysical review letters. 2015;114(16):165001
Measuring a Cherenkov ring in the radio emission from air showers at 110-190 MHz with LOFAR1411.6865v1 · A. Nelles, P. Schellart, S. Buitink et al.2014 · 72 citationsarXiv
Career total: 199 works. 65 are in this corpus.Showing the 50 most recent.
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