Improved eV-scale Sterile-Neutrino Constraints from the Second KATRIN Measurement Campaign,
M. Aker et al.(KATRIN),
Phys.Rev.D 105 (2022) 072004,arXiv:2201.11593.
[KATRIN:2022ith]
First direct neutrino-mass measurement with sub-eV sensitivity,
M. Aker et al.(KATRIN),
Nature Phys. 18 (2022) 160-166,arXiv:2105.08533.
[KATRIN:2021uub]
Analysis methods for the first KATRIN neutrino-mass measurement,
M. Aker et al.(KATRIN),
Phys.Rev.D 104 (2021) 012005,arXiv:2101.05253.
[KATRIN:2021fgc]
Bound on 3+1 active-sterile neutrino mixing from the first four-week science run of KATRIN,
M. Aker et al.(KATRIN),
Phys.Rev.Lett. 126 (2021) 091803,arXiv:2011.05087.
[KATRIN:2020dpx]
An improved upper limit on the neutrino mass from a direct kinematic method by KATRIN,
M. Aker et al.(KATRIN),
Phys.Rev.Lett. 123 (2019) 221802,arXiv:1909.06048.
[KATRIN:2019yun]
New Constraint on the Local Relic Neutrino Background Overdensity with the First KATRIN Data Runs,
M. Aker et al.(KATRIN),
Phys.Rev.Lett. 129 (2022) 011806,arXiv:2202.04587.
[KATRIN:2022kkv]
Search for Lorentz-Invariance Violation with the first KATRIN data,
M. Aker et al.(KATRIN),
Phys.Rev.D 107 (2023) 082005,arXiv:2207.06326.
[KATRIN:2022qou]
Improved treatment of the $T_2$ molecular final-states uncertainties for the KATRIN neutrino-mass measurement,
S. Schneidewind, J. Schurmann, A. Lokhov, C. Weinheimer, A. Saenz,
Eur.Phys.J.C 84 (2024) 494,arXiv:2310.12634.
[Schneidewind:2023xmj]
Neutral tritium gas reduction in the KATRIN differential pumping sections,
Alexander Marsteller et al.,
Vacuum 184 (2021) 109979,arXiv:2009.10403.
[Marsteller:2020tgj]
Time dependent simulation of the flow reduction of D$_2$ and T$_2$ in the KATRIN experiment,
F. Friedel et al.,
Vacuum 159 (2019) 161-172,arXiv:1807.10126.
[Friedel:2018cyn]
Modelling of gas dynamical properties of the KATRIN tritium source and implications for the neutrino mass measurement,
L. Kuckert et al.,
Vacuum 158 (2018) 195-205,arXiv:1805.05313.
[Kuckert:2018kao]
A pulsed, mono-energetic and angular-selective UV photo-electron source for the commissioning of the KATRIN experiment,
J. Behrens et al.,
Eur.Phys.J. C77 (2017) 410,arXiv:1703.05272.
[Behrens:2017cmd]
Deconvolution of the energy loss function of the KATRIN experiment,
Volker Hannen, Irina Heese, Anna Sejersen Riis, Kathrin Valerius, Christian Weinheimer,
Astropart.Phys. 89 (2017) 30-38,arXiv:1701.08066.
[Hannen:2017xiu]
Investigations of Charge Collection and Signal Timing in a multi-pixel Silicon Drift Detector,
Christian Forstner, Korbinian Urban, Marco Carminati, Frank Edzards, Carlo Fiorini, Manuel Lebert, Peter Lechner, Daniel Siegmann, Daniela Spreng, Susanne Mertens,
arXiv:2409.08901, 2024. [Forstner:2024tdv]
Investigation of Electron Backscattering on Silicon Drift Detectors for the Sterile Neutrino Search with TRISTAN,
Daniela Spreng, Korbinian Urban, Marco Carminati, Frank Edzards, Carlo Fiorini, Peter Lechner, Andrea Nava, Daniel Siegmann, Christoph Wiesinger, Susanne Mertens,
arXiv:2405.12776, 2024. [Spreng:2024kbi]
A thermionic electron gun to characterize silicon drift detectors with electrons,
Korbinian Urban et al.,
JINST 19 () P06004,arXiv:2404.01777.
[Urban:2024bnz]
Development of a Silicon Drift Detector Array to Search for keV-scale Sterile Neutrinos with the KATRIN Experiment,
Daniel Siegmann et al.,
J.Phys.G 51 () 085202,arXiv:2401.14114.
[Siegmann:2024xvv]
Operation Modes of the KATRIN Experiment Tritium Loop System using $^{83\mathrm{m}}$Kr,
Alexander Marsteller et al.,
JINST 17 (2022) P12010,arXiv:2209.13926.
[KATRIN:2022zqa]
Wideband precision stabilization of the -18.6 kV retarding voltage for the KATRIN spectrometer,
C. Rodenbeck, S. Wustling, S. Enomoto, J. Hartmann, O. Rest, T. Thummler, C. Weinheimer,
JINST 17 (2022) P06003,arXiv:2203.13153.
[Rodenbeck:2022iys]
Background reduction at the KATRIN experiment by the shifted analysing plane configuration,
Alexey Lokhov et al.,
Eur.Phys.J.C 82 (2022) 258,arXiv:2201.11743.
[Lokhov:2022iag]
Fast and precise model calculation for KATRIN using a neural network,
Christian Karl, Philipp Eller, Susanne Mertens,
Eur.Phys.J.C 82 (2022) 439,arXiv:2201.04523.
[Karl:2022jda]
TRISTAN: A novel detector for searching keV-sterile neutrinos at the KATRIN experiment,
Korbinian Urban et al.,
JINST 17 (2022) C09020,arXiv:2111.14161.
[Urban:2021ink]
Precision measurement of the electron energy-loss function in tritium and deuterium gas for the KATRIN experiment,
M. Aker et al.,
Eur.Phys.J.C 81 (2021) 579,arXiv:2105.06930.
[KATRIN:2021rqj]
Forward Beam Monitor for the KATRIN experiment,
A. Beglarian, E. Ellinger, N. Hausmann, K. Helbing, S. Hickford, U. Naumann, H.-W. Ortjohann, M. Steidl, J. Wolf, S. Wustling,
JINST 17 (2022) T03002,arXiv:2101.11495.
[Beglarian:2021ubj]
Characterization of Silicon Drift Detectors with Electrons for the TRISTAN Project,
T. Brunst et al.,
J.Phys. G48 (2021) 015008,arXiv:2007.07136.
[Mertens:2020mdv]
High-resolution spectroscopy of gaseous $^\mathrm{83m}$Kr conversion electrons with the KATRIN experiment,
K. Altenmuller et al.,
J.Phys. G47 (2020) 065002,arXiv:1903.06452.
[Altenmuller:2019ddl]
A novel detector system for KATRIN to search for keV-scale sterile neutrinos,
Susanne Mertens et al.,
J.Phys. G46 (2019) 065203,arXiv:1810.06711.
[KATRIN:2018oow]
Impact of a cryogenic baffle system on the suppression of radon-induced background in the KATRIN Pre-Spectrometer,
S. Goerhardt et al.,
JINST 13 (2018) T10004,arXiv:1808.09168.
[Gorhardt:2018rqg]
$\beta$-Decay Spectrum, Response Function and Statistical Model for Neutrino Mass Measurements with the KATRIN Experiment,
M. Kleesiek et al.,
Eur.Phys.J. C79 (2019) 204,arXiv:1806.00369.
[Kleesiek:2018mel]
Technical design and commissioning of the sensor net for fine meshed measuring of magnetic field at KATRIN Spectrometer,
J. Letnev et al.,
JINST 13 (2018) T08010,arXiv:1805.10819.
[Letnev:2018fkq]
Reduction of stored-particle background by a magnetic pulse method at the KATRIN experiment,
M. Arenz et al.(KATRIN),
Eur.Phys.J. C78 (2018) 778,arXiv:1805.01163.
[KATRIN:2018lln]
Calibration of high voltages at the ppm level by the difference of $^{83\mathrm{m}}$Kr conversion electron lines at the KATRIN experiment,
M. Arenz et al.,
Eur.Phys.J. C78 (2018) 368,arXiv:1802.05227.
[Arenz:2018ymp]
Technical design and commissioning of the KATRIN large-volume air coil system,
M. Erhard et al.,
JINST 13 (2018) P02003,arXiv:1712.01078.
[Erhard:2017htg]
Neutrino mass sensitivity by MAC-E-Filter based time-of-flight spectroscopy with the example of KATRIN,
Nicholas Steinbrink et al.,
New J. Phys. 15 (2013) 113020,arXiv:1308.0532.
[Steinbrink:2013ska]
Ultra-stable implanted 83Rb/83mKr electron sources for the energy scale monitoring in the KATRIN experiment,
M. Zboril et al.,
JINST 8 (2013) P03009,arXiv:1212.5016.
[Zboril:2012ci]
Monitoring of tritium purity during long-term circulation in the KATRIN test experiment LOOPINO using laser Raman spectroscopy,
Sebastian Fischer et al.,
arXiv:1208.1605, 2012. [Fischer:2012xs]
Monitoring of the properties of the KATRIN Windowless Gaseous Tritium Source,
M. Babutzka et al.,
New J. Phys. 14 (2012) 103046,arXiv:1205.5421.
[Babutzka:2012xd]
Stochastic Heating by ECR as a Novel Means of Background Reduction in the KATRIN Spectrometers,
S. Mertens et al.,
JINST 7 (2012) P08025,arXiv:1205.3729.
[Mertens:2012mv]
Background due to stored electrons following nuclear decays in the KATRIN spectrometers and its impact on the neutrino mass sensitivity,
S. Mertens et al.,
Astropart. Phys. 41 (2013) 52-62,arXiv:1204.6213.
[Mertens:2012vs]
Performance of a TiN-coated monolithic silicon pin-diode array under mechanical stress,
B. A. VanDevender et al.,
Nucl.Instrum.Meth. A673 (2012) 46-50,arXiv:1202.0320.
[VanDevender:2012rx]
KATRIN: A next generation tritium beta decay experiment with sub-eV sensitivity for the electron neutrino mass,
A. Osipowicz et al.(KATRIN),
arXiv:hep-ex/0109033, 2001. [KATRIN:2001ttj]
Hunting keV sterile neutrinos with KATRIN: building the first TRISTAN module,
Thibaut Houdy et al.,
J.Phys.Conf.Ser. 1468 (2020) 012177,arXiv:2004.07693.
[Houdy:2020vhw]
Characterization of the Detector Response to Electrons of Silicon Drift Detectors for the TRISTAN Project,
Manuel Lebert, Tim Brunst, Thibaut Houdy, Susanne Mertens, Daniel Siegmann,
arXiv:2003.04756, 2020.VIII International Pontecorvo Neutrino Physics School. [Lebert:2020lvt]
The KATRIN Neutrino Mass Measurement: Experiment, Status, and Outlook,
Gregg B. Franklin(KATRIN),
arXiv:1809.10603, 2018.CIPANP2018. [Franklin:2018adt]
Detector Development for a Sterile Neutrino Search with the KATRIN Experiment,
Tim Brunst et al.(KATRIN),
arXiv:1801.08182, 2018.7th International Pontecorvo Neutrino Physics School. [Brunst:2018vka]
Status of the neutrino mass experiments KATRIN and Project 8,
Florian Fraenkle(KATRIN),
PoS EPS-HEP2015 (2015) 084.2015 European Physical Society Conference on High Energy Physics (EPS-HEP 2015). [Fraenkle:2015yfs]
Status of the KATRIN Experiment and Prospects to Search for keV-mass Sterile Neutrinos in Tritium $\beta$-decay,
Susanne Mertens(KATRIN),
Phys.Procedia 61 (2015) 267-273. [Mertens:2015ila]
KATRIN: an experiment to determine the neutrino mass from the beta decay of tritium,
R. G. Hamish Robertson(KATRIN),
arXiv:1307.5486, 2013.2013 Snowmass. [Robertson:2013ziv]
The KATRIN Experiment: Status and Outlook,
D.S. Parno(KATRIN),
arXiv:1307.5289, 2013.Sixth Meeting on CPT and Lorentz Symmetry, Bloomington, Indiana, June 17-21, 2013. [Parno:2013yqa]
$T_{2}$-beta-spectroscopy at KATRIN and the challenge of controlling the electrostatic potentials,
Ernst Otten(KATRIN),
Nucl. Phys. Proc. Suppl. 237-238 (2013) 57-60.Neutrino Oscillation Workshop (NOW 2012). [Otten:2013rwa]
Accuracy of the Laser Raman system for KATRIN,
M. Schlosser, S. Fischer, M. Hotzel, W. Kafer(KATRIN),
arXiv:1203.4099, 2012.International School of Physics 'E. Fermi', Neutrino Physics and Astrophysics, Varenna 2011. [Schlosser:2012sx]
Status of the KATRIN experiment with special emphasis on source-related issues,
Michael Sturm(KATRIN),
arXiv:1111.4773, 2011.PIC 2011, Vancouver, August/September 2011. [Sturm:2011ms]
KATRIN: an experiment to determine the neutrino mass,
F.M. Fraenkle(KATRIN),
arXiv:1110.0087, 2011.DPF-2011 Conference, Providence, RI, August 8-13, 2011. [Fraenkle:2011uu]
Introduction to direct neutrino mass measurements and KATRIN,
Thomas Thummler(KATRIN),
Nucl. Phys. Proc. Suppl. 229-232 (2012) 146-151,arXiv:1012.2282.
XXIV International Conference on Neutrino Physics and Astrophysics, Neutrino 2010. [Thummler:2010tt]
The KATRIN Neutrino Mass Experiment,
J. Wolf, for the KATRIN collaboration(KATRIN),
Nucl. Instrum. Meth. A623 (2010) 442-444,arXiv:0810.3281.
ICHEP2008. [Wolf:2008hf]
KATRIN: an experiment to measure the neutrino mass,
R. G. H. Robertson(KATRIN),
J. Phys. Conf. Ser. 120 (2008) 052028,arXiv:0712.3893.
TAUP 2007. [Robertson:2007xx]
Katrin - Direct Measurement of Neutrino Masses in the Sub-Ev Region,
Lutz Bornschein et al.(KATRIN),
eConf C030626 (2003) FRAP14,arXiv:hep-ex/0309007.
XIII Physics in Collision Conference(PIC03), Zeuthen, Germany, June 2003. [Bornschein:2003xi]
The search for the neutrino mass by direct method in the tritium beta-decay and perspectives of study it in the project KATRIN,
V. M. Lobashev(KATRIN),
Nucl. Phys. A719 (2003) C153-C160.17th International Nuclear Physics Divisional Conference: Europhysics Conference on Nuclear Physics in Astrophysics (NPDC 17), Debrecen, Hungary, 30 Sep - 3 Oct 2002. [Lobashev:2003kt]
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