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7. Value of blood pressure measurement earlier versus later in life to predict cardiovascular mortality

Author

Leiherer, A., primary, Ulmer, H., additional, Muendlein, A., additional, Saely, C., additional, Fraunberger, P., additional, Mader, A., additional, Sprenger, L., additional, Maechler, M., additional, Vonbank, A., additional, Larcher, B., additional, Plattner, T., additional, Brozek, W., additional, Nagel, G., additional, Zitt, E., additional, Concin, H., additional, and Drexel, H., additional

Published
2023
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12. Ceramide-based lipid profiles and the prevalence of type 2 diabetes differ between patients with coronary artery disease and those with peripheral artery disease

Author

Leiherer, A., primary, Muendlein, A., additional, Brandtner, E.M., additional, Saely, C., additional, Vonbank, A., additional, Mader, A., additional, Sprenger, L., additional, Maechler, M., additional, Larcher, B., additional, Plattner, T., additional, Jylha, A., additional, Laaperi, M., additional, Laaksonen, R., additional, März, W., additional, Fraunberger, P., additional, Kleber, M., additional, and Drexel, H., additional

Published
2023
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14. Implementation und Validierung des Cowan-Cole-Kärkkäinen Maxwell-Solver in PIConGPU

Author

Sprenger, L. and Sprenger, L.

Abstract

Es wird der Cowan-Cole-Kärkkäinen (CCK) Maxwell Solver in PIConGPU implementiert und validiert. Der CCK Solver hat gegenüber dem standard Yee Solver den Vorteil, dass er entlang der Achse mit dem geringsten Gitterabstand dispersionsfrei ist. Dadurch wird beispielsweise bei Laser Wakefield Acceleration Simulationen keine numerische Cherenkov Strahlung erzeugt. Dabei wird die in der Simulation beobachtbare Phasengeschwindigkeit einer Welle mit den theoretischen Werten aus den numerischen Dispersionsrelationen verglichen.

Published
2023

16. Ceramide-based lipid profiles and the prevalence of type 2 diabetes differ between patients with coronary artery disease and those with peripheral artery disease

Author

Leiherer, A, primary, Muendlein, A, additional, Brandtner, E, additional, Saely, C H, additional, Vonbank, A, additional, Mader, A, additional, Sprenger, L, additional, Maechler, M, additional, Jylha, A, additional, Laaperi, M, additional, Laaksonen, R, additional, Maerz, W, additional, Fraunberger, P, additional, Kleber, M, additional, and Drexel, H, additional

Published
2022
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17. Value of blood pressure measurement earlier versus later in life to predict cardiovascular mortality

Author

Leiherer, A, primary, Ulmer, H, additional, Muendlein, A, additional, Saely, C H, additional, Fraunberger, P, additional, Mader, A, additional, Sprenger, L, additional, Maechler, M, additional, Vonbank, A, additional, Larcher, B, additional, Brozek, W, additional, Nagel, G, additional, Zitt, E, additional, Concin, H, additional, and Drexel, H, additional

Published
2022
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21. The ceramide- and phosphatidylcholine- based coronary event risk test2 (CERT2) and cardiovascular mortality in men and women with type 2 diabetes

Author

Leiherer, A., primary, Muendlein, A., additional, Saely, C.H., additional, Larcher, B., additional, Mader, A., additional, Maechler, M., additional, Sprenger, L., additional, Grabher, V., additional, Laaksonen, R., additional, Laaperi, M., additional, Jylha, A., additional, Fraunberger, P., additional, and Drexel, H., additional

Published
2022
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23. PIConGPU: Scaling high-fidelity plasma simulations up to exascale compute systems and a view on recent applications

Author

(0000-0002-3844-3697) Debus, A., (0000-0001-8965-1149) Steiniger, K., (0000-0003-3396-6154) Bastrakov, S., Bastrakova, K., (0000-0002-8258-3881) Bussmann, M., (0009-0008-0365-5164) Carstens, F.-O., (0000-0002-3560-9428) Chandrasekaran, S., Garten, M., (0000-0001-7848-1690) Gruber, B. M., Hernandez Arreguin, B., Hübl, A., (0000-0002-9935-4428) Juckeland, G., (0000-0003-1761-2591) Kelling, J., Lebedev, A., Leinhauser, M., (0009-0005-6873-8292) Marre, B. E., Meyer, F., Ordyna, P., (0000-0001-7990-9564) Pausch, R., (0000-0001-7042-5088) Pöschel, F., Rogers, D., (0000-0003-0390-7671) Schramm, U., Sprenger, L., (0000-0001-5007-1868) Starke, S., Thévenet, M., Trojok, J., Wang, M., (0000-0003-1642-0459) Widera, R., Young, J., (0000-0002-3844-3697) Debus, A., (0000-0001-8965-1149) Steiniger, K., (0000-0003-3396-6154) Bastrakov, S., Bastrakova, K., (0000-0002-8258-3881) Bussmann, M., (0009-0008-0365-5164) Carstens, F.-O., (0000-0002-3560-9428) Chandrasekaran, S., Garten, M., (0000-0001-7848-1690) Gruber, B. M., Hernandez Arreguin, B., Hübl, A., (0000-0002-9935-4428) Juckeland, G., (0000-0003-1761-2591) Kelling, J., Lebedev, A., Leinhauser, M., (0009-0005-6873-8292) Marre, B. E., Meyer, F., Ordyna, P., (0000-0001-7990-9564) Pausch, R., (0000-0001-7042-5088) Pöschel, F., Rogers, D., (0000-0003-0390-7671) Schramm, U., Sprenger, L., (0000-0001-5007-1868) Starke, S., Thévenet, M., Trojok, J., Wang, M., (0000-0003-1642-0459) Widera, R., and Young, J.

Abstract

PIConGPU’s latest release 0.6.0 in December 2021 brought a number of new features. Among these are an arbitrary-order Maxwell solver, the Higuera-Cary pusher, collisions, and incident field generation via the total field/scattered field technique enhancing its numerical stability and predictive capabilities. Furthermore, there are various technical advances, most notably support of the HIP computational backend allowing to run on AMD GPUs. These advances are mainly driven by our participation in OLCF’s Frontier Center for Accelerated Application Readiness providing access to the hardware platform of the Frontier exascale supercomputer scheduled for deployment later this year. We show performance data and present recent applications of PIConGPU profiting from these developments. To these applications belongs the advanced laser-plasma accelerator scheme Traveling-wave electron acceleration (TWEAC), providing scalability to energies beyond 10 GeV while avoiding staging. We further present simulation campaigns modeling and delivering valuable insight into the micrometer and femtosecond plasma dynamics of existing experimental campaigns.

Published
2022

24. PIConGPU -- High-Fidelity Plasma Simulations on Desktop Computers up to Exascale Compute Systems and a View on its Recent Applications

Author

(0000-0002-3844-3697) Debus, A., (0000-0001-8965-1149) Steiniger, K., (0000-0003-3396-6154) Bastrakov, S., Bastrakova, K., (0000-0002-8258-3881) Bussmann, M., Carstens, F.-O., (0000-0002-3560-9428) Chandrasekaran, S., (0000-0001-6994-2475) Garten, M., (0000-0001-7848-1690) Gruber, B. M., Hernandez Arreguin, B., Hübl, A., (0000-0002-9935-4428) Juckeland, G., (0000-0003-1761-2591) Kelling, J., Lebedev, A., (0000-0003-2914-1483) Leinhauser, M., Marre, B. E., Meyer, F., Ordyna, P., (0000-0001-7990-9564) Pausch, R., (0000-0001-7042-5088) Pöschel, F., Rogers, D., (0000-0003-0390-7671) Schramm, U., Sprenger, L., Starke, S., Thévenet, M., Trojok, J., Wang, M., (0000-0003-1642-0459) Widera, R., Young, J., (0000-0002-3844-3697) Debus, A., (0000-0001-8965-1149) Steiniger, K., (0000-0003-3396-6154) Bastrakov, S., Bastrakova, K., (0000-0002-8258-3881) Bussmann, M., Carstens, F.-O., (0000-0002-3560-9428) Chandrasekaran, S., (0000-0001-6994-2475) Garten, M., (0000-0001-7848-1690) Gruber, B. M., Hernandez Arreguin, B., Hübl, A., (0000-0002-9935-4428) Juckeland, G., (0000-0003-1761-2591) Kelling, J., Lebedev, A., (0000-0003-2914-1483) Leinhauser, M., Marre, B. E., Meyer, F., Ordyna, P., (0000-0001-7990-9564) Pausch, R., (0000-0001-7042-5088) Pöschel, F., Rogers, D., (0000-0003-0390-7671) Schramm, U., Sprenger, L., Starke, S., Thévenet, M., Trojok, J., Wang, M., (0000-0003-1642-0459) Widera, R., and Young, J.

Abstract

PIConGPU’s latest release 0.6.0 in December 2021 brought a number of new features. Among these are an arbitrary-order Maxwell solver, the Higuera-Cary pusher, collisions, and incident field generation via the total field/scattered field technique enhancing its numerical stability and predictive capabilities. Furthermore, there are various technical advances, most notably support of the HIP computational backend allowing to run on AMD GPUs. These advances are mainly driven by our participation in OLCF’s Frontier Center for Accelerated Application Readiness providing access to the hardware platform of the Frontier exascale supercomputer scheduled for deployment in 2022. We show performance data and present recent applications of PIConGPU profiting from these developments. To these applications belongs the advanced laser-plasma accelerator scheme Traveling-wave electron acceleration (TWEAC), providing scalability to energies beyond 10 GeV while avoiding staging. We further present simulation campaigns modeling and delivering valuable insight into the micrometer and femtosecond plasma dynamics of existing experimental campaigns.

Published
2022

25. PIConGPU -- High-Fidelity Plasma Simulations on Desktop Computers up to Exascale Compute Systems and a View on its Recent Applications

Author

Debus, A., Steiniger, K., Bastrakov, S., Bastrakova, K., Bussmann, M., Carstens, F.-O., Chandrasekaran, S., Garten, M., Gruber, B. M., Hernandez Arreguin, B., Hübl, A., Juckeland, G., Kelling, J., Lebedev, A., Leinhauser, M., Marre, B. E., Meyer, F., Ordyna, P., Pausch, R., Pöschel, F., Rogers, D., Schramm, U., Sprenger, L., Starke, S., Thévenet, M., Trojok, J., Wang, M., Widera, R., and Young, J.

Subjects
particle-in-cell code, PIConGPU, performance portable, TWEAC
Abstract

PIConGPU’s latest release 0.6.0 in December 2021 brought a number of new features. Among these are an arbitrary-order Maxwell solver, the Higuera-Cary pusher, collisions, and incident field generation via the total field/scattered field technique enhancing its numerical stability and predictive capabilities. Furthermore, there are various technical advances, most notably support of the HIP computational backend allowing to run on AMD GPUs. These advances are mainly driven by our participation in OLCF’s Frontier Center for Accelerated Application Readiness providing access to the hardware platform of the Frontier exascale supercomputer scheduled for deployment in 2022. We show performance data and present recent applications of PIConGPU profiting from these developments. To these applications belongs the advanced laser-plasma accelerator scheme Traveling-wave electron acceleration (TWEAC), providing scalability to energies beyond 10 GeV while avoiding staging. We further present simulation campaigns modeling and delivering valuable insight into the micrometer and femtosecond plasma dynamics of existing experimental campaigns.

Published
2022

26. PIConGPU: Scaling high-fidelity plasma simulations up to exascale compute systems and a view on recent applications

Author

Debus, A., Steiniger, K., Bastrakov, S., Bastrakova, K., Bussmann, M., Carstens, F.-O., Chandrasekaran, S., Garten, M., Gruber, B. M., Hernandez Arreguin, B., Hübl, A., Juckeland, G., Kelling, J., Lebedev, A., Leinhauser, M., Marre, B. E., Meyer, F., Ordyna, P., Pausch, R., Pöschel, F., Rogers, D., Schramm, U., Sprenger, L., Starke, S., Thévenet, M., Trojok, J., Wang, M., Widera, R., and Young, J.

Subjects
particle-in-cell code, Laser-plasma accelerator, PIConGPU, TWEAC
Abstract

PIConGPU’s latest release 0.6.0 in December 2021 brought a number of new features. Among these are an arbitrary-order Maxwell solver, the Higuera-Cary pusher, collisions, and incident field generation via the total field/scattered field technique enhancing its numerical stability and predictive capabilities. Furthermore, there are various technical advances, most notably support of the HIP computational backend allowing to run on AMD GPUs. These advances are mainly driven by our participation in OLCF’s Frontier Center for Accelerated Application Readiness providing access to the hardware platform of the Frontier exascale supercomputer scheduled for deployment later this year. We show performance data and present recent applications of PIConGPU profiting from these developments. To these applications belongs the advanced laser-plasma accelerator scheme Traveling-wave electron acceleration (TWEAC), providing scalability to energies beyond 10 GeV while avoiding staging. We further present simulation campaigns modeling and delivering valuable insight into the micrometer and femtosecond plasma dynamics of existing experimental campaigns.

Published
2022

31. The ceramide- and phosphatidylcholine- based Coronary Event Risk Test2 (CERT2) and cardiovascular mortality in men and women with type 2 diabetes

Author

Leiherer, A, primary, Muendlein, A, additional, Saely, C H, additional, Larcher, B, additional, Mader, A, additional, Maechler, M, additional, Sprenger, L, additional, Mutschlechner, B, additional, Benda, M, additional, Laaksonen, R, additional, Laaperi, M, additional, Jylha, A, additional, Fraunberger, P, additional, and Drexel, H, additional

Published
2021
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32. Remnant cholesterol in patients with established cardiovascular disease predicts cardiovascular events both among patients with type 2 diabetes and among non-diabetic subjects

Author

Mader, A, primary, Sprenger, L, additional, Vonbank, A, additional, Larcher, B, additional, Maechler, M, additional, Mutschlechner, B, additional, Benda, M, additional, Leiherer, A, additional, Muendlein, A, additional, Drexel, H, additional, and Saely, C H, additional

Published
2021
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37. Value of total cholesterol earlier versus later in life to predict cardiovascular death

Author

Leiherer, A., primary, Ulmer, H., additional, Muendlein, A., additional, Saely, C.H., additional, Vonbank, A., additional, Larcher, B., additional, Mader, A., additional, Maechler, M., additional, Sprenger, L., additional, Mutschlechner, B., additional, Fraunberger, P., additional, Foeger, B., additional, Brozek, W., additional, Nagel, G., additional, Zitt, E., additional, Drexel, H., additional, and Concin, H., additional

Published
2021
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39. ComputationalRadiationPhysics/picongpu: C++14, New Solvers, I/O via openPMD API, HIP Support

Author

Bastrakov, S., Bastrakova, K., Marre, B. E., Debus, A., Garten, M., Gruber, B. M., Hübl, A., Trojok, J., Kelling, J., Lebedev, A., Meyer, F., Ordyna, P., Pöschel, F., Sprenger, L., Steiniger, K., Wang, M., Starke, S., Thévenet, M., Pausch, R., and Widera, R.

Subjects
Particle-in-Cell, Plasma, HIP, HPC, PIConGPU, Laser, CUDA, C++
Abstract

This release switches to C++14 as minimum required version. Transition to C++17 is planned for upcoming releases. We extended PIConGPU with a few new solvers. Binary collisions are now available. We added arbitrary-order FDTD Maxwell's solver. All field solvers are now compatible with perfectly matched layer absorber, which became default. Yee solver now supports incident field generation using total field/scattered field technique. We added Higuera-Cary particle pusher and improved compatibility of pushers with probe species. Implementation of particle boundaries was extended to support custom positions, reflecting and thermal boundary kinds were added. With this release, PIConGPU fully switches to openPMD API library for performing I/O. The native HDF5 and ADIOS output plugins were replaced with a new openPMD plugin. All other plugins were updated to use openPMD API. Plugins generally support HDF5 and ADIOS2 backends of openPMD API, a user can choose file format based on their installation of openPMD API. We also added new plugins for SAXS and particle merging. We added support for HIP as a computational backend. In particular, it allows running on AMD GPUs. Several performance optimizations were added. Some functors and plugins now have performance-influencing parameters exposed to a user. The code was largely modernized and refactored, documentation was extended. Thanks to Sergei Bastrakov, Kseniia Bastrakova, Brian Edward Marre, Alexander Debus, Marco Garten, Bernhard Manfred Gruber, Axel Huebl, Jakob Trojok, Jeffrey Kelling, Anton Lebedev, Felix Meyer, Paweł Ordyna, Franz Poeschel, Lennert Sprenger, Klaus Steiniger, Manhui Wang, Sebastian Starke, Maxence Thévenet, Richard Pausch, René Widera for contributions to this release!

Published
2021

40. ComputationalRadiationPhysics/picongpu: C++14, New Solvers, I/O via openPMD API, HIP Support

Author

(0000-0003-3396-6154) Bastrakov, S., Bastrakova, K., (0009-0005-6873-8292) Marre, B. E., (0000-0002-3844-3697) Debus, A., (0000-0001-6994-2475) Garten, M., (0000-0001-7848-1690) Gruber, B. M., (0000-0003-1943-7141) Hübl, A., Trojok, J., (0000-0003-1761-2591) Kelling, J., Lebedev, A., Meyer, F., Ordyna, P., (0000-0001-7042-5088) Pöschel, F., Sprenger, L., (0000-0001-8965-1149) Steiniger, K., Wang, M., (0000-0001-5007-1868) Starke, S., Thévenet, M., (0000-0001-7990-9564) Pausch, R., (0000-0003-1642-0459) Widera, R., (0000-0003-3396-6154) Bastrakov, S., Bastrakova, K., (0009-0005-6873-8292) Marre, B. E., (0000-0002-3844-3697) Debus, A., (0000-0001-6994-2475) Garten, M., (0000-0001-7848-1690) Gruber, B. M., (0000-0003-1943-7141) Hübl, A., Trojok, J., (0000-0003-1761-2591) Kelling, J., Lebedev, A., Meyer, F., Ordyna, P., (0000-0001-7042-5088) Pöschel, F., Sprenger, L., (0000-0001-8965-1149) Steiniger, K., Wang, M., (0000-0001-5007-1868) Starke, S., Thévenet, M., (0000-0001-7990-9564) Pausch, R., and (0000-0003-1642-0459) Widera, R.

Abstract

This release switches to C++14 as minimum required version. Transition to C++17 is planned for upcoming releases. We extended PIConGPU with a few new solvers. Binary collisions are now available. We added arbitrary-order FDTD Maxwell's solver. All field solvers are now compatible with perfectly matched layer absorber, which became default. Yee solver now supports incident field generation using total field/scattered field technique. We added Higuera-Cary particle pusher and improved compatibility of pushers with probe species. Implementation of particle boundaries was extended to support custom positions, reflecting and thermal boundary kinds were added. With this release, PIConGPU fully switches to openPMD API library for performing I/O. The native HDF5 and ADIOS output plugins were replaced with a new openPMD plugin. All other plugins were updated to use openPMD API. Plugins generally support HDF5 and ADIOS2 backends of openPMD API, a user can choose file format based on their installation of openPMD API. We also added new plugins for SAXS and particle merging. We added support for HIP as a computational backend. In particular, it allows running on AMD GPUs. Several performance optimizations were added. Some functors and plugins now have performance-influencing parameters exposed to a user. The code was largely modernized and refactored, documentation was extended. Thanks to Sergei Bastrakov, Kseniia Bastrakova, Brian Edward Marre, Alexander Debus, Marco Garten, Bernhard Manfred Gruber, Axel Huebl, Jakob Trojok, Jeffrey Kelling, Anton Lebedev, Felix Meyer, Paweł Ordyna, Franz Poeschel, Lennert Sprenger, Klaus Steiniger, Manhui Wang, Sebastian Starke, Maxence Thévenet, Richard Pausch, René Widera for contributions to this release!

Published
2021

43. Shunts: Is Surgical Education Safe?

Author

Joswig, H., additional, Lavalley, A., additional, Sprenger, L., additional, Gautschi, O.P., additional, Hildebrandt, G., additional, Schaller, K., additional, and Stienen, M.N., additional

Published
2017
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45. Occurrence of gastrointestinal parasites in Spheniscus magellanicus (Foster, 1781) located in Pontal do Sul, PR, Brazil.

Author

Vanhoni, M. S., Arná, G. M., Sprenger, L. K., Vieira, D. L., Luis, L. W., and Molento, M. B.

Abstract

Copyright of Arquivo Brasileiro de Medicina Veterinaria e Zootecnia is the property of Universidade Federal de Minas Gerais, Escola de Veterinaria and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

Published
2018
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47. Duddingtonia flagrans no controle de nematoides gastrintestinais de equinos em fases de vida livre.

Author

Buzatti, A., Santos, C. P., Fernandes, M. A. M., Yoshitani, U. Y., Sprenger, L. K., and Molento, M. B.

Abstract

Copyright of Arquivo Brasileiro de Medicina Veterinaria e Zootecnia is the property of Universidade Federal de Minas Gerais, Escola de Veterinaria and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

Published
2017
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