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177 results on '"Piller, C."'

2. Negative ion radio frequency surface plasma source with solenoidal magnetic field

Author

Dudnikov, V., Johnson, R. P., Han, B., Kang, Y., Murray, S., Pennisi, T., Piller, C., Stinson, C., Stockli, M., Welton, R., and Dudnikova, G.

Subjects
Physics - Plasma Physics
Abstract

Pulsed and CW operation of negative ion radio frequency surface plasma source with a solenoidal magnetic field is described. Dependences of a beam current on RF power, extraction voltage, solenoid magnetic field, gas flow are presented. Compact design of RF SPS is presented., Comment: arXiv admin note: text overlap with arXiv:1808.02829

Published
2018
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3. RF Positive Ion Source with Solenoidal Magnetic Field

Author

Dudnikov, V., Johnson, R. P., Han, B., Kang, Y., Murray, S., Pennisi, T., Piller, C., Stinson, C., Stockli, M., Welton, R., and Dudnikova, G.

Subjects
Physics - Plasma Physics
Abstract

A positive ion source with RF discharge in solenoidal magnetic field is described. In this paper we present an overview of positive ion production in saddle antenna (helicon discharge) radio frequency (SA RF) ion sources. The efficiency of H+ ion production in recently developed RF sources with solenoidal antennas was improved to 2.9 mA/kW. About 24 kW of RF power is typically needed for 70 mA beam current production from a 7 mm emission aperture. This efficiency is relatively low because in the RF discharge with a solenoidal antenna, the plasma is generated near the coil and diffuses to the axis creating a nearly uniform plasma density distribution in all cross sections of the discharge chamber, when the plasma flow is necessary only near an emission aperture. The efficiency of the extracted ion generation was improved significantly by using a saddle antenna with solenoidal magnetic field. In the RF discharge with the saddle antenna the plasma is generated near the axis and the magnetic field suppress the plasma diffusion from the axis, creating a peaked plasma density distribution on the emission aperture. With the SA the efficiency of positive ion generation in the plasma has been improved up to ~100 mA/cm2 per kW of RF power at 13.56 MHz. Continuous wave (CW) operation of the RF source has been tested on the small ORNL SNS test stand. The general design of the CW RF source is based on the pulsed version. A compact design of ion source is presented. Some modifications were made to improve the cooling and to simplify the design. Features of SA RF discharges and ion generation are discussed.

Published
2018

5. The Spallation Neutron Source accelerator system design

Author

Henderson, S., Abraham, W., Aleksandrov, A., Allen, C., Alonso, J., Anderson, D., Arenius, D., Arthur, T., Assadi, S., Ayers, J., Bach, P., Badea, V., Battle, R., Beebe-Wang, J., Bergmann, B., Bernardin, J., Bhatia, T., Billen, J., Birke, T., Bjorklund, E., Blaskiewicz, M., Blind, B., Blokland, W., Bookwalter, V., Borovina, D., Bowling, S., Bradley, J., Brantley, C., Brennan, J., Brodowski, J., Brown, S., Brown, R., Bruce, D., Bultman, N., Cameron, P., Campisi, I., Casagrande, F., Catalan-Lasheras, N., Champion, M., Chen, Z., Cheng, D., Cho, Y., Christensen, K., Chu, C., Cleaves, J., Connolly, R., Cote, T., Cousineau, S., Crandall, K., Creel, J., Crofford, M., Cull, P., Cutler, R., Dabney, R., Dalesio, L., Daly, E., Damm, R., Danilov, V., Davino, D., Davis, K., Dawson, C., Day, L., Deibele, C., Delayen, J., DeLong, J., Demello, A., DeVan, W., Digennaro, R., Dixon, K., Dodson, G., Doleans, M., Doolittle, L., Doss, J., Drury, M., Elliot, T., Ellis, S., Error, J., Fazekas, J., Fedotov, A., Feng, P., Fischer, J., Fox, W., Fuja, R., Funk, W., Galambos, J., Ganni, V., Garnett, R., Geng, X., Gentzlinger, R., Giannella, M., Gibson, P., Gillis, R., Gioia, J., Gordon, J., Gough, R., Greer, J., Gregory, W., Gribble, R., Grice, W., Gurd, D., Gurd, P., Guthrie, A., Hahn, H., Hardek, T., Hardekopf, R., Harrison, J., Hatfield, D., He, P., Hechler, M., Heistermann, F., Helus, S., Hiatt, T., Hicks, S., Hill, J., Hoff, L., Hoff, M., Hogan, J., Holding, M., Holik, P., Holmes, J., Holtkamp, N., Hovater, C., Howell, M., Hseuh, H., Huhn, A., Hunter, T., Ilg, T., Jackson, J., Jain, A., Jason, A., Jeon, D., Johnson, G., Jones, A., Joseph, S., Justice, A., Kang, Y., Kasemir, K., Keller, R., Kersevan, R., Kerstiens, D., Kesselman, M., Kim, S., Kneisel, P., Kravchuk, L., Kuneli, T., Kurennoy, S., Kustom, R., Kwon, S., Ladd, P., Lambiase, R., Lee, Y.Y., Leitner, M., Leung, K.-N., Lewis, S., Liaw, C., Lionberger, C., Lo, C.C., Long, C., Ludewig, H., Ludvig, J., Luft, P., Lynch, M., Ma, H., MacGill, R., Macha, K., Madre, B., Mahler, G., Mahoney, K., Maines, J., Mammosser, J., Mann, T., Marneris, I., Marroquin, P., Martineau, R., Matsumoto, K., McCarthy, M., McChesney, C., McGahern, W., McGehee, P., Meng, W., Merz, B., Meyer, R., Jr., Meyer, R., Sr., Miller, B., Mitchell, R., Mize, J., Monroy, M., Munro, J., Murdoch, G., Musson, J., Nath, S., Nelson, R., O׳Hara, J., Olsen, D., Oren, W., Oshatz, D., Owens, T., Pai, C., Papaphilippou, I., Patterson, N., Patterson, J., Pearson, C., Pelaia, T., Pieck, M., Piller, C., Plawski, T., Plum, M., Pogge, J., Power, J., Powers, T., Preble, J., Prokop, M., Pruyn, J., Purcell, D., Rank, J., Raparia, D., Ratti, A., Reass, W., Reece, K., Rees, D., Regan, A., Regis, M., Reijonen, J., Rej, D., Richards, D., Richied, D., Rode, C., Rodriguez, W., Rodriguez, M., Rohlev, A., Rose, C., Roseberry, T., Jr., Rowton, L., Roybal, W., Rust, K., Salazer, G., Sandberg, J., Saunders, J., Schenkel, T., Schneider, W., Schrage, D., Schubert, J., Severino, F., Shafer, R., Shea, T., Shishlo, A., Shoaee, H., Sibley, C., Sims, J., Smee, S., Smith, J., Smith, K., Spitz, R., Staples, J., Stein, P., Stettler, M., Stirbet, M., Stockli, M., Stone, W., Stout, D., Stovall, J., Strelo, W., Strong, H., Sundelin, R., Syversrud, D., Szajbler, M., Takeda, H., Tallerico, P., Tang, J., Tanke, E., Tepikian, S., Thomae, R., Thompson, D., Thomson, D., Thuot, M., Treml, C., Tsoupas, N., Tuozzolo, J., Tuzel, W., Vassioutchenko, A., Virostek, S., Wallig, J., Wanderer, P., Wang, Y., Wang, J.G., Wangler, T., Warren, D., Wei, J., Weiss, D., Welton, R., Weng, J., Weng, W-T., Wezensky, M., White, M., Whitlatch, T., Williams, D., Williams, E., Wilson, K., Wiseman, M., Wood, R., Wright, P., Wu, A., Ybarrolaza, N., Young, K., Young, L., Yourd, R., Zachoszcz, A., Zaltsman, A., Zhang, S., Zhang, W., Zhang, Y., and Zhukov, A.

Published
2014
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8. Muon Transfer to Low Z Elements

Author

Jacot-Guillarmod, R., Mulhauser, F., Piller, C., Schaller, L. A., Schellenberg, L., Schneuwly, H., Zichichi, Antonino, editor, Simons, Leopold M., editor, Horváth, Dezsö, editor, and Torelli, Gabriele, editor

Published
1990
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9. Muon Transfer in H2 + SO2 Gas Mixtures

Author

Mulhauser, F., Jacot-Guillarmod, R., Piller, C., Schaller, L. A., Schellenberg, L., Schneuwly, H., Zichichi, Antonino, editor, Simons, Leopold M., editor, Horváth, Dezsö, editor, and Torelli, Gabriele, editor

Published
1990
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11. Muon transfer from protium to helium isotopes at low temperature

Author

Tresch, S., Ackerbauer, P., Augsburger, M., Breunlich, W.H., Cargnelli, M., Chatellard, D., Egger, J.-P., von Egidy, T., Gartner, B., Hartmann, F.J., Jacot-Guillarmod, R., Jeannet, E., King, R., Lauss, B., Marton, J., Mühlbauer, M., Mulhauser, F., Petitjean, C., Piller, C., Prymas, W., Schaller, L.A., Schellenberg, L., Schneuwly, H., Schott, W., Thalmann, Y.-A., Werthmüller, A., and Zmeskal, J.

Published
1999
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12. Muon transfer from ground state deuterium to helium nuclei and its temperature dependence

Author

Gartner, B., Ackerbauer, P., Augsburger, M., Breunlich, W.H., Cargnelli, M., Chatellard, D., Egger, J.-P., von Egidy, T., Hartmann, F.J., Jacot-Guillarmod, R., Jeannet, E., Kammel, P., King, R.C., Kosak, A., Lauss, B., Marton, J., Mühlbauer, M., Mulhauser, F., Petitjean, C., Piller, C., Prymas, W., Schaller, L.A., Schellenberg, L., Schneuwly, H., Schott, W., Thalmann, Y.A., Tresch, S., Werthmüller, A., and Zmeskal, J.

Published
1999
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14. Experimental investigation of the muon transfer reaction from deuterium to helium isotopes

Author

Gartner, B., Ackerbauer, P., Breunlich, W. H., Cargnelli, M., Fischer, A., Kammel, P., King, R., Kminek, G., Lauss, B., Marton, J., Prymas, W., Steininger, E., Zmeskal, J., Petitjean, C., Chatellard, D., Egger, J. -P., Jeannet, E., Hartmann, F. J., Kosak, A., Mühlbauer, M., von Egidy, T., Piller, C., Schaller, L. A., Schellenberg, L., Schneuwly, H., Thalmann, Y. -A., Tresch, S., and Werthmüller, A.

Published
1996
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17. Muon transfer from protium to helium

Author

Tresch, S., Ackerbauer, P., Breunlich, W. H., Cargnelli, M., Chatellard, D., Egger, J. -P., von Egidy, T., Fischer, A., Gartner, B., Hartmann, F. J., Jacot-Guillarmod, R., Jeannet, E., Kammel, P., King, R., Kminek, G., Lauss, B., Marton, J., Mühlbauer, M., Mulhauser, F., Petitjean, C., Piller, C., Prymas, W., Schaller, L. A., Schellenberg, L., Schneuwly, H., Steininger, E., Thalmann, Y. A., Werthmüller, A., and Zmeskal, J.

Published
1996
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18. Time-of-flight measurement of resonant molecular formation in muon-catalyzed dt fusion

Author

Marshall, G. M., Adamczak, A., Bailey, J. M., Beer, G. A., Beveridge, J. L., Douglas, J. L., Faifman, M. P., Fujiwara, M. C., Huber, T. M., Jacot-Guillarmod, R., Kammel, P., Kherani, N. P., Kim, S. K., Knowles, P. E., Kunselman, A. R., Maier, M., Markushin, V. E., Martoff, C. J., Mason, G. R., Melezhik, V. S., Mulhauser, F., Olin, A., Petitjean, C., Piller, C., Porcelli, T. A., Steffens, C. P., Zhang, Y., and Zmeskal, J.

Published
1996
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19. Muon transfer to light atoms

Author

Schellenberg, L., Adamczak, A., Jacot-Guillarmod, R., Mulhauser, F., Piller, C., Schaller, L. A., Schneuwly, H., Thalmann, Y. -A., Tresch, S., and Werthmüller, A.

Published
1996
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20. H− ion source research and development at the Oak Ridge National Laboratory.

Author

Welton, R. F., Stockli, M. P., Han, B. X., Murray, S. N., Pennisi, T. R., Stinson, C., Aleksandrov, A., Piller, C., Kang, Y., and Tarvainen, O.

Subjects
ION sources, GOVERNMENT laboratories, PLASMA torch, NEUTRON beams, RESEARCH & development, SMALL-angle neutron scattering
Abstract

The U.S. Spallation Neutron Source (SNS) is a state-of-the-art neutron scattering facility delivering the world's most intense pulsed neutron beams to a wide array of instruments which are used to conduct investigations in many fields of science and engineering. Neutrons are produced by spallation of liquid Hg due to bombardment of short (∼1µs), intense (∼35 A) pulses of protons delivered at 60 Hz from a storage ring which is fed by a high-intensity, 1 GeV H− LINAC. This facility has operated almost continuously since 2006, with ion source performance increasing over those years, and currently providing 50-60 mA of H− ions with a duty-factor of 6% for maintenance-free runs of ∼120 days with near 100% availability. Ion source research and development at ORNL has played a key role in enabling and supporting these achievements: this report provides some historical highlights of this effort, describes our current ion source testing facilities, discusses the goals of the program and finally provides a snapshot of some of our ongoing R&D activities. In particular, we have recently simplified and improved the reliability of the plasma ignition gun for the external antenna ion source which is discussed in detail. [ABSTRACT FROM AUTHOR]

Published
2021
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23. PROCESSO DE NEGOCIAÇÃO E TRANSFERÊNCIA DE TECNOLOGIA EM UMA INSTITUIÇÃO MULTICAMPI: CASO DO IFBA

Author

Bruno Araujo Oliveira, Vivian Patricia Suzart, Wagna Piller C. Santos, and Anete Santos Santos

Subjects
Physics, parcerias, transferência tecnológica, General Medicine, Humanities, negociação, contratos
Abstract

A transferencia de tecnologia e um processo pelo qual apos o desenvolvimento de um produto ou processo cientifico e tecnologico, o que chamamos de Propriedade Intelectual, por meio de pesquisas, em um ambiente apropriado, principalmente, academico, seu resultado e transferido, atraves de acordos, parcerias e negociacoes, para analisar a melhor proposta, a fim de ser aprimorado o seu desenvolvimento e colocado no mercado, com isso contribuindo com o avanco economico do pais, alimentando a competitividade comercial. Esse processo a cada dia tem se firmado no cenario tecnologico de maneira muito contundente e segura, tendo em vista a apropriacao do bem intangivel e a necessidade de salvaguardar direitos inerentes ao bem intangivel. Geralmente, essas transacoes sao firmadas atraves de contratos, que externa um acordo de vontade celebrada entre partes. Em uma Instituicao multicampi nao e diferente, todo processo de transferencia de tecnologia e centralizada e acompanhada por um departamento especifico, de inovacao e transferencia tecnologica.

Published
2015

27. Saddle antenna radio frequency ion sources

Author

Dudnikov, V., primary, Johnson, R., additional, Murray, S., additional, Pennisi, T., additional, Santana, M., additional, Piller, C., additional, Stockli, M., additional, Welton, R., additional, Breitschopf, J., additional, and Dudnikova, G., additional

Published
2016
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29. Ion extraction from a saddle antenna RF surface plasma source

Author

Dudnikov, V., primary, Johnson, R. P., additional, Han, B., additional, Murray, S., additional, Pennisi, T., additional, Piller, C., additional, Santana, M., additional, Stockli, M., additional, Welton, R., additional, Breitschopf, J., additional, and Dudnikova, G., additional

Published
2015
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35. Recent Performance and Ignition Tests of the Pulsed SNS H- Source for 1-MW Neutron Production.

Author

Stockli, Martin P., Han, B. X., Murray, S. N., Pennisi, T. R., Piller, C., Santana, M., and Welton, R. F.

Subjects
NEUTRON multiplicity, ION beams, ELECTRIC fields, PLASMA gases, ELECTRIC potential
Abstract

After acquiring several reliable spare targets, SNS ramped the beam power from 850 kW to 1.4 MW, which required an increase in H- beam pulse length from 0.88 to 1.0 ms at 60 Hz. This increase initially produced slow 2-MHz power ramp-ups and, after several weeks of uninterrupted operation, it produced plasma outages every time the pulse length was raised above ~0.95 ms. Similar outages were previously observed towards the end of long service cycles, which were believed to indicate that the breakdown voltage of the high purity hydrogen started to exceed the induced electric fields. In 2011 the RF was reconfigured to start with 10 cycles of 1.96 MHz, which yielded the shortest H- beam rise times and apparently eliminated those plasma outages. The new, pulse-length dependent outages were eliminated by increasing the initial frequency to 1.985 MHz. However, careful frequency studies are unable to justify this frequency. In addition, the paper discusses the issues and solutions for the electron-dump voltage, which starts to sag and become unstable after several weeks of high current operation. [ABSTRACT FROM AUTHOR]

Published
2015
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37. Recent performance of and plasma outage studies with the SNS H- source.

Author

Stockli, M. P., Han, B., Murray, S. N., Pennisi, T. R., Piller, C., Santana, M., and Welton, R.

Subjects
SPALLATION (Nuclear physics), NEUTRON sources, DIRECTIONAL antennas, RADIO frequency, PLASMA gases
Abstract

Spallation Neutron Source ramps to higher power levels that can be sustained with high availability. The goal is 1.4MWdespite a compromised radio frequency quadrupole (RFQ), which requires higher radio frequency power than design levels to approach the nominal beam transmission. Unfortunately at higher power the RFQ often loses its thermal stability, a problem apparently enhanced by beam losses and high influxes of hydrogen. Delivering as much H- beam as possible with the least amount of hydrogen led to plasma outages. The root cause is the dense 1-ms long ~55-kW 2-MHz plasma pulses reflecting ~90% of the continuous ~300 W, 13-MHz power, which was mitigated with a 4-ms filter for the reflected power signal and an outage resistant, slightly detuned 13-MHz match. Lowering the H2 gas also increased the H- beam current to ~55 mA and increased the RFQ transmission by ~7% (relative). [ABSTRACT FROM AUTHOR]

Published
2016
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38. Characterization of the CW starter plasma RF matching network for operating the SNS H- ion source with lower H2 flows.

Author

Han, B. X., Stockli, M. P., Kang, Y., Piller, C., Jr., S. N. Murray,, Pennisi, T. R., Santana, M., and Welton, R. F.

Subjects
RADIO frequency discharges, SPALLATION (Nuclear physics), NEUTRON sources, NUCLEAR physics instruments, QUADRUPOLE mass analyzers
Abstract

The Spallation Neutron Source H- ion source is operated with a pulsed 2-MHz RF (50-60 kW) to produce the 1-ms long, ~50 mA H- beams at 60 Hz. A continuous low power (~300 W) 13.56-MHz RF plasma, which is initially ignited with a H2 pressure bump, serves as starter plasma for the pulsed high power 2-MHz RF discharges. To reduce the risk of plasma outages at lower H2 flow rates which is desired for improved performance of the following radio frequency quadrupole, the 13.56-MHz RF matching network was characterized over a broad range of its two tuning capacitors. The H-α line intensity of the 13.56-MHz RF plasma and the reflected power of the 13.56-MHz RF were mapped against the capacitor settings. Optimal tunes for the maximum H-α intensity are consistent with the optimal tunes for minimum reflected power. Low limits of the H2 flow rate not causing plasma outages were explored within the range of the map. A tune region that allows lower H2 flow rate has been identified, which differs from the optimal tune for global minimum reflected power that was mostly used in the past. [ABSTRACT FROM AUTHOR]

Published
2016
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39. The CEBAF RF Separator System

Author

Hovater, C, Arnold, G, Fugitt, J A, Harwood, L, Kazimi, R, Lahti, G, Mammosser, J, Nelson, R, Piller, C, and Turlington, L

Subjects
Accelerators and Storage Rings
Published
1996

42. Time-of-flight measurement of resonant molecular formation in muon catalyzed dt fusion

Author

Marshall, G M, Adamczak, A, Bailey, J M, Beer, G A, Beveridge, J L, Douglas, J L, Faifman, M P, Fujiwara, M C, Huber, T M, Jacot-Guillarmod, R, Kammel, P, Kherani, N P, Kim, S K, Knowles, P E, Kunselman, A R, Maier, M, Markushin, V E, Martoff, C J, Mason, G R, Melezhik, V S, Mulhauser, F, Olin, A, Petitjean, C, Piller, C, Porcelli, T A, Steffens, C P, and Zmeskal, J

Subjects
Nuclear Physics
Published
1995

44. Improving efficiency of plasma generation in H- ion source with saddle antenna.

Author

Dudnikov, V., Johnson, R., Murrey, S., Pinnisi, T., Piller, C., Santana, M., Stockli, M., Welton, R., and Johnson, C.

Subjects
PLASMA gases, HYDROGEN ions, ION sources, RADIO frequency, MAGNETIC fields, IONIZATION chambers, MICROFABRICATION
Abstract

Progress on the development of RF H- surface plasma source (SPS) with saddle antenna radio frequency (SA RF) discharge is considered. Several versions of new plasma generators with different antennas and magnetic field configurations were tested in the SNS small Test Stand. The efficiency of positive ion generation in plasma has been improved up to 0.18 A/cm2 per 1 kW of RF power at 13.56 MHz. A first prototype SA SPS with AlN chamber was installed in the SNS Test Stand that achieved current of H- ions up to 67 mA with an apparent efficiency of up to 1.6 mA/kW at RF frequency 2 MHz. A new version of the RF assisted triggering plasma source (TPS) has been designed, fabricated and tested. After cesiation emission of negative ions was increased from 1 mA to 5 mA with RF power 2.5 kW. [ABSTRACT FROM AUTHOR]

Published
2013
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45. Performance of the H- Ion Source Supporting 1-MW Beam Operations at SNS.

Author

Han, B. X., Hardek, T., Kang, Y., Murray, S. N., Pennisi, T. R., Piller, C., Santana, M., Welton, R. F., and Stockli, M. P.

Subjects
NEUTRON sources, HYDROGEN ions, ION bombardment, NEUTRONS, ION sources, RADIO frequency
Abstract

The Spallation Neutron Source (SNS) at Oak Ridge National Laboratory reached 1-MW of beam power in September 2009, and now routinely operates near 1-MW for the production of neutrons. This paper reviews the performance, operational issues, implemented and planned mitigations of the SNS H- ion source to support such high power-level beams with high availability. Some results from R&D activities are also briefly described. [ABSTRACT FROM AUTHOR]

Published
2011
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47. Recent performance of the SNS H- ion source and low-energy beam transport system.

Author

Stockli, Martin P., Ewald, K. D., Han, B. X., Murray Jr., S. N., Pennisi, T. R., Piller, C., Santana, M., Tang, J., and Welton, R.

Subjects
ELECTRODES, ION beams, PARTICLES (Nuclear physics), OPTICAL instruments, ION sources
Abstract

Recent measurements of the H- beam current show that SNS is injecting about 55 mA into the RFQ compared to ~45 mA in 2010. Since 2010, the H- beam exiting the RFQ dropped from ~40 mA to ~34 mA, which is sufficient for 1 MW of beam power. To minimize the impact of the RFQ degradation, the service cycle of the best performing source was extended to 6 weeks. The only degradation is fluctuations in the electron dump voltage towards the end of some service cycles, a problem that is being investigated. Very recently, the RFQ was retuned, which partly restored its transmission. In addition, the electrostatic low-energy beam transport system was reengineered to double its heat sinking and equipped with a thermocouple that monitors the temperature of the ground electrode between the two Einzel lenses. The recorded data show that emissions from the source at high voltage dominate the heat load. Emissions from the partly Cs-covered first lens cause the temperature to peak several hours after starting up. On rare occasions, the temperature can also peak due to corona discharges between the center ground electrode and one of the lenses. [ABSTRACT FROM AUTHOR]

Published
2014
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48. Measurement of the formation rate and the radiative decay of the muonic molecules(pμ3He)*and(pμ4He)*

Author

Tresch, S., primary, Mulhauser, F., additional, Piller, C., additional, Schaller, L. A., additional, Schellenberg, L., additional, Schneuwly, H., additional, Thalmann, Y.-A., additional, Werthmüller, A., additional, Ackerbauer, P., additional, Breunlich, W. H., additional, Cargnelli, M., additional, Gartner, B., additional, King, R., additional, Lauss, B., additional, Marton, J., additional, Prymas, W., additional, Zmeskal, J., additional, Petitjean, C., additional, Augsburger, M., additional, Chatellard, D., additional, Egger, J.-P., additional, Jeannet, E., additional, von Egidy, T., additional, Hartmann, F. J., additional, Mühlbauer, M., additional, and Schott, W., additional

Published
1998
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49. Muon transfer rates from hydrogen to3Heand4Hemeasured at low temperature

Author

Tresch, S., primary, Jacot-Guillarmod, R., additional, Mulhauser, F., additional, Piller, C., additional, Schaller, L. A., additional, Schellenberg, L., additional, Schneuwly, H., additional, Thalmann, Y.-A., additional, Werthmüller, A., additional, Ackerbauer, P., additional, Breunlich, W. H., additional, Cargnelli, M., additional, Gartner, B., additional, King, R., additional, Lauss, B., additional, Marton, J., additional, Prymas, W., additional, Zmeskal, J., additional, Petitjean, C., additional, Chatellard, D., additional, Egger, J.-P., additional, Jeannet, E., additional, Hartmann, F. J., additional, and Mühlbauer, M., additional

Published
1998
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